The present invention relates to an animal femoral implant and, more specifically, to an animal femoral implant, which may enable artificial hip joint replacement for animals, may enable the implant to be firmly fixed to the animal femur by spontaneous bone growth of the animal, thereby preventing complications such as aseptic dissociation and bone resorption around the cement, which may occur when using bone cement, and may cause a porous part, which has relatively low strength due to a plurality of pores formed therein, to be protected by a frame part, which has relatively high strength due to a solid face formed therein, thereby preventing damage to the porous part in which the edge thereof is broken or bent by friction with the bone or by an external force in the process of inserting the femur implant into the animal femur and eliminating a problem in that porous particles that may be generated when the porous part is damaged penetrate into blood vessels and the like to cause various inflammatory reactions.

A method of controlling an eye surgical laser is disclosed for the separation of a volume body with predefined posterior and anterior interfaces from a human/animal cornea. The method including controlling the laser with a control device, the laser being configured to emit pulsed laser pulses in a predefined pattern into the cornea. The posterior and anterior interfaces of the volume body are defined by the predefined pattern and are generated by an interaction of the individual laser pulses with the cornea through photodisruption. The control device controls the laser beam such that both interfaces are generated via a continuous, uninterrupted sequence of laser pulses. A treatment device is disclosed with at least one eye surgical laser for the separation of a predefined corneal volume with predefined interfaces of a human/animal eye by photodisruption and with at least one control device for the laser(s).

Disclosed are methods, materials and devices for approximation of blood volume in a fluid, such as in a biological fluid collected during a surgical procedure. The method and devices may include the use of an RBC flocculant, for example polyDADMAC, and an approximate blood hematocrit from the type of animal blood being evaluated, as well as a calculated RBC packing ratio corresponding to the collection device being used. Also provided is a Blood Indicator Panel (BIP), comprising a series of markings calculated from an observed red blood settlement volume, the average animal blood hematocrit, and a calculated RBC packing ratio “n” value for the collection device. A collection device with a BIP is disclosed. Pediatric (about 200 ml or 250 ml size container), adult human (about 1,000 ml -1,500 ml) and veterinary (about 500 ml - 2,500 ml) collection containers are also disclosed, that include a RBC flocculant, for use in approximating blood volume in a fluid.

A surgical towel clamp apparatus includes a first elongated element having a curved tip and a right finger ring, a second elongated element having a curved tip and a left finger ring, wherein the first and second elongated elements are coupled at a first pivot point, a third elongated element having a straight tip and coupled to the right finger ring, a fourth elongated element having a straight tip and coupled to the left finger ring, wherein the third and fourth elongated elements are coupled at a second pivot point, wherein in an open orientation, the rings are apart, the curved tips are apart, and the straight tips are apart, and wherein in a closed orientation, the left and right finger rings are adjacent, the curved tips are in contact and the straight tips are in contact.

A surgical towel clamp apparatus includes a first elongated element having a curved tip and a right finger ring, a second elongated element having a curved tip and a left finger ring, wherein the first and second elongated elements are coupled at a first pivot point, a third elongated element having a straight tip and coupled to the right finger ring, a fourth elongated element having a straight tip and coupled to the left finger ring, wherein the third and fourth elongated elements are coupled at a second pivot point, wherein in an open orientation, the rings are apart, the curved tips are apart, and the straight tips are apart, and wherein in a closed orientation, the left and right finger rings are adjacent, the curved tips are in contact and the straight tips are in contact.

The invention relates to a method for controlling an ophthalmological laser (12) of a treatment apparatus (10) for the treatment of a human or animal eye (16), comprising controlling the laser (12) by means of a control device (18) of the treatment apparatus (10) such that it emits pulsed laser pulses (20) in a shot sequence in a preset pattern into the eye (16), wherein the individual laser pulses interact with a tissue (14) of the eye for the treatment of the eye (16), wherein a space-filling curve is preset for the pattern for treating the tissue (14).

A surgical guidance system (SGS) for performing a cruciate pivot osteotomy in canines to treat cranial cruciate ligament disease. The SGS comprises a guide, a jig, and a plate. The guide is first placed over the tibia until it interacts with specific anatomical features of the tibia, thereby marking the proper position for the jig to be placed. After the jig has been secured, a blade defines an osteotomy within a proximal portion of the tibia. A portion of the jig is then cranially rotated providing a rotational correction of the proximal tibia. A compressive force is then applied to the osteotomy by the jig. Next the multiplane locking plate is placed over the osteotomy as dictated by the features of the jig. After initially securing the plate into its correct position, the jig is removed and the plate is then secured to the cranial surface of the tibia.

A surgical guidance system (SGS) for performing a cruciate pivot osteotomy in canines to treat cranial cruciate ligament disease. The SGS comprises a guide, a jig, and a plate. The guide is first placed over the tibia until it interacts with specific anatomical features of the tibia, thereby marking the proper position for the jig to be placed. After the jig has been secured, a blade defines an osteotomy within a proximal portion of the tibia. A portion of the jig is then cranially rotated providing a rotational correction of the proximal tibia. A compressive force is then applied to the osteotomy by the jig. Next the multiplane locking plate is placed over the osteotomy as dictated by the features of the jig. After initially securing the plate into its correct position, the jig is removed and the plate is then secured to the cranial surface of the tibia.

Disclosed are methods, materials and devices for approximation of blood volume in a fluid, such as in a biological fluid collected during a surgical procedure. The method and devices include the use of a RBC flocculant, such as polyDADMAC, and an approximate blood hematocrit for the type of animal, as well as a calculated RBC packing ratio corresponding to the collection device being used. Also provided is a Blood Indicator Panel (BIP), comprising a series of markings calculated from an observed red blood settlement volume, the average animal type hematocrit, and a calculated RBC packing ratio “η” value for the collection device. Pediatric (about 200 ml or 250 ml size container), adult human (about 1,000 ml-1,500 ml) and veterinary (about 500 ml-2,500 ml) collection containers are also disclosed, that include a RBC flocculant, for use in approximating blood volume in a fluid.

An aural hematoma splint (AHS) system/method providing for animal ear pinna (AEP) suspension and/or compression allowing non-surgical treatment of AEP auricular hematoma is disclosed. The AHS promotes healing performance by including a conical primary plate (CPP) and angular secondary plate (ASP) that are used in conjunction with non-elastic fabric tape (NFT) to hold the AEP in suspension during treatment. The NFT includes a long strap collar (LSC) and cross support strips (CSS) for preparatory taping and application of the CPP/ASP to the AEP. This sandwich configuration of the CPP/ASP surrounding the AEP creates equilibrium in hematoma fluid pressures within the damaged area of the AEP, promotes a uniform thin layer of blood to clot in the entirety of the hematoma region, and allows regeneration of damaged tissues in a controlled environment while limiting structural and aesthetic damage to the healed AEP post treatment.