mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: processing circuitry to execute instructions; and a call path identifier storage element to store a call path identifier, wherein in response to a calling instruction for calling a target function, the processing circuitry is configured to permute the call path identifier with a function return address to generate an updated call path identifier to be stored to the call path identifier storage element; in response to an authentication code generating instruction identifying a first source value, the processing circuitry is configured to generate an authentication code dependent on the first source value and at least one modifier value; and in response to an authentication code checking instruction identifying a second source value associated with a previously generated authentication code, the processing circuitry is configured to check whether the previously generated authentication code matches an expected authentication code dependent on the second source value and at least one modifier value, and to trigger an error handling response when a mismatch is detected between the previously generated authentication code and the expected authentication code; wherein for at least one variant of the authentication code generating instruction and at least one variant of the authentication code checking instruction, said at least one modifier value comprises a value dependent on the call path identifier stored in the call path identifier storage element. processing circuitry to execute instructions; and a call path identifier storage element to store a call path identifier, wherein in response to a calling instruction for calling a target function, the processing circuitry is configured to permute the call path identifier with a function return address to generate an updated call path identifier to be stored to the call path identifier storage element; in response to an authentication code generating instruction identifying a first source value, the processing circuitry is configured to generate an authentication code dependent on the first source value and at least one modifier value; and in response to an authentication code checking instruction identifying a second source value associated with a previously generated authentication code, the processing circuitry is configured to check whether the previously generated authentication code matches an expected authentication code dependent on the second source value and at least one modifier value, and to trigger an error handling response when a mismatch is detected between the previously generated authentication code and the expected authentication code; wherein for at least one variant of the authentication code generating instruction and at least one variant of the authentication code checking instruction, said at least one modifier value comprises a value dependent on the call path identifier stored in the call path identifier storage element.
A bioactive collagen biomaterial comprising: (a) native collagen, denatured collagen and hydrolyzed collagen, each of said native collagen, denatured collagen and hydrolyzed collagen having exposed RGD motifs for cell activation; and (b) polyhexamethylene biguanide (PHMB) provided in an amount of 0.001% to 5% by weight and ethylenediaminetetraacetic acid (EDTA) provided in an amount of 0.001% to 5% by weight; wherein the biomaterial is produced by dehydrothermal treatment (DHT) which exposes RGD motifs in the native collagen while maintaining physical integrity and structural stabilization, wherein cell activation occurs via RGD motifs binding to and activating integrin receptors in cells, tissues and/or organs when said biomaterial is in contact with said cells, tissues and/or organs. (a) native collagen, denatured collagen and hydrolyzed collagen, each of said native collagen, denatured collagen and hydrolyzed collagen having exposed RGD motifs for cell activation; and (b) polyhexamethylene biguanide (PHMB) provided in an amount of 0.001% to 5% by weight and ethylenediaminetetraacetic acid (EDTA) provided in an amount of 0.001% to 5% by weight; wherein the biomaterial is produced by dehydrothermal treatment (DHT) which exposes RGD motifs in the native collagen while maintaining physical integrity and structural stabilization, wherein cell activation occurs via RGD motifs binding to and activating integrin receptors in cells, tissues and/or organs when said biomaterial is in contact with said cells, tissues and/or organs.
A power supply, comprising: a transformer-less oscillator comprising a power source and a resonant circuit , the resonant circuit having a q-factor and being directly coupled to the power source ; and a controller for controlling the power source , wherein the resonant circuit comprises a resonant inductor coupled in series with a resonant capacitor , the resonant capacitor configured to be directly coupled in parallel with an ozone generating unit , where the q-factor is greater than or equal to 10, wherein the controller is configured to provide signals to the power source that allow the resonant circuit to operate at its resonant frequency and to control the power source to tune an initial frequency of a first AC voltage from the power source to the maximum operating frequency of the resonant circuit , and to approach the frequency of the first AC voltage to a resonant frequency of the resonant circuit and obtain a second AC voltage having a desired voltage magnitude by comparing a sensed input DC current inputted to the power source with a set point DC current , the power source being configured to provide the first AC voltage to the resonant circuit , and the resonant circuit being configured to provide the second AC voltage to the ozone generating unit , the second AC voltage being greater than the first AC voltage and powering the ozone generating unit . a transformer-less oscillator comprising a power source and a resonant circuit , the resonant circuit having a q-factor and being directly coupled to the power source ; and a controller for controlling the power source , wherein the resonant circuit comprises a resonant inductor coupled in series with a resonant capacitor , the resonant capacitor configured to be directly coupled in parallel with an ozone generating unit , where the q-factor is greater than or equal to 10, wherein the controller is configured to provide signals to the power source that allow the resonant circuit to operate at its resonant frequency and to control the power source to tune an initial frequency of a first AC voltage from the power source to the maximum operating frequency of the resonant circuit , and to approach the frequency of the first AC voltage to a resonant frequency of the resonant circuit and obtain a second AC voltage having a desired voltage magnitude by comparing a sensed input DC current inputted to the power source with a set point DC current , the power source being configured to provide the first AC voltage to the resonant circuit , and the resonant circuit being configured to provide the second AC voltage to the ozone generating unit , the second AC voltage being greater than the first AC voltage and powering the ozone generating unit .
Compressor system for generating compressed air, comprising: - a drive ; - a compressor powered by the drive ; - a lubricant cooler connected to the compressor for cooling a lubricant; - a compressed air cooler connected to the compressor for cooling compressed air generated by the compressor ; - a blower unit connected to the lubricant cooler and the compressed air cooler for supplying cooled air thereto; characterized in that - the blower unit has at least two blowers , which can be controlled by signals being independently from each other, and which convey cooled air into separate first and second cooling chambers ; - the first cooling chamber conveys the cooled air to the lubricant cooler and the second cooling chamber conveys the cooled air to the compressed air cooler ; - the lubricant cooler and the compressed air cooler are offset to one another such that the axes of their inflow and outflow flanges disposed on their lateral walls lie in different planes. - a drive ; - a compressor powered by the drive ; - a lubricant cooler connected to the compressor for cooling a lubricant; - a compressed air cooler connected to the compressor for cooling compressed air generated by the compressor ; - a blower unit connected to the lubricant cooler and the compressed air cooler for supplying cooled air thereto; - the blower unit has at least two blowers , which can be controlled by signals being independently from each other, and which convey cooled air into separate first and second cooling chambers ; - the first cooling chamber conveys the cooled air to the lubricant cooler and the second cooling chamber conveys the cooled air to the compressed air cooler ; - the lubricant cooler and the compressed air cooler are offset to one another such that the axes of their inflow and outflow flanges disposed on their lateral walls lie in different planes.
An electrical connector having a male contact and a female contact that are movable between a non-inserted position, in which the male contact is separated from the female contact (10; 110), and an inserted position, in which an electrically conductive insertable part of the male contact is inserted along an insertion axis (D) into a housing defined by the female contact (10; 110), the female contact (10; 110) including: - an electrically conductive body , and - a plurality of strips protruding axially from the body and distributed angularly around the insertable part in the inserted position, the strips being electrically conductive and radially flexible, the body and the strips defining said housing , characterized in that it further comprises a plurality of annular contention members that are structurally identical to one another, asymmetrical around the insertion axis (D), and arranged on radially outer faces of the strips , each of the contention members being suitable for exerting a centripetal radial pressure on the strips in the inserted position, the strips having radially inner faces pressed against the insertable part in the inserted position, at least two of the contention members respectively having angular orientations distinct from one another relative to the body around the insertion axis (D). - an electrically conductive body , and - a plurality of strips protruding axially from the body and distributed angularly around the insertable part in the inserted position, the strips being electrically conductive and radially flexible, the body and the strips defining said housing ,
A full glass facade comprising at least a facade support structure and a number of surface elements which are attached in front of the facade support structure , wherein at least two surface elements , in particular two side surfaces of the surface elements facing one another, form a gap , at least one glass holder being provided, which is connected to the facade support structure and the surface elements and extends through a portion of the gap , the gap being partially filled with silicone , a closing profile being fitted between the silicone and the at least one glass holder , characterised in that the closing profile has, at least partially, an U-shaped cross-section with a base side and two legs , wherein the closing profile is an elongated profile, in particular an aluminium profile or a steel profile, wherein the base side of the closing profile is connected to the facade support structure and/or to the at least one glass holder and/or to the at least one insulating profile by means of at least one screw , wherein the head of the at least one screw has been made unusable after assembly, and wherein the legs of the closing profile are arranged largely parallel to the side surfaces of the at least two surface elements .
A method, comprising: applying a magnetic field sufficient to distribute magnetic particles present in a body into a mask having a spatial arrangement in a lumen of subsurface vasculature ; detecting a response signal transmitted from the subsurface vasculature , wherein the response signal includes a background signal and an analyte response signal indicative of interaction of functionalized particles present in the body with one or more target analytes, wherein the spatial arrangement of the mask formed by the magnetic particles modulates the analyte response signal with respect to the background signal as the functionalized particles in the body flow past the spatial arrangement of the mask, such that a period of the modulated analyte response signal as detected is different than a period of the background signal as detected; and non-invasively detecting the one or more target analytes by differentiating the analyte response signal from the background signal due, at least in part, to the modulation of the analyte response signal . applying a magnetic field sufficient to distribute magnetic particles present in a body into a mask having a spatial arrangement in a lumen of subsurface vasculature ; detecting a response signal transmitted from the subsurface vasculature , wherein the response signal includes a background signal and an analyte response signal indicative of interaction of functionalized particles present in the body with one or more target analytes, wherein the spatial arrangement of the mask formed by the magnetic particles modulates the analyte response signal with respect to the background signal as the functionalized particles in the body flow past the spatial arrangement of the mask, such that a period of the modulated analyte response signal as detected is different than a period of the background signal as detected; and non-invasively detecting the one or more target analytes by differentiating the analyte response signal from the background signal due, at least in part, to the modulation of the analyte response signal .
A single use disposable surgical kit, comprising: a sterile sealed container comprising; a module configured to fit within the sterile sealed container comprising: surgical instruments housed in a bottom tray comprising a first fastening feature; and a lid comprising a second fastening feature congruently aligned with the first fastening feature, wherein the first fastening feature is one of a tab portion and a mating slot , the second fastening feature is the other of the tab portion and the mating slot , and the second fastening feature is configured to engage with the first fastening feature characterized in that the first fastening feature comprises at least two tab portions positioned diagonally opposite each other in at least two corners of the bottom tray , wherein the second fastening feature comprises at least two mating slots positioned diagonally opposite each other and congruently aligned with the tab portions of the bottom tray . a sterile sealed container comprising; a module configured to fit within the sterile sealed container comprising: surgical instruments housed in a bottom tray comprising a first fastening feature; and a lid comprising a second fastening feature congruently aligned with the first fastening feature, wherein the first fastening feature is one of a tab portion and a mating slot , the second fastening feature is the other of the tab portion and the mating slot , and the second fastening feature is configured to engage with the first fastening feature surgical instruments housed in a bottom tray comprising a first fastening feature; and a lid comprising a second fastening feature congruently aligned with the first fastening feature, wherein the first fastening feature is one of a tab portion and a mating slot , the second fastening feature is the other of the tab portion and the mating slot , and the second fastening feature is configured to engage with the first fastening feature characterized in that the first fastening feature comprises at least two tab portions positioned diagonally opposite each other in at least two corners of the bottom tray , wherein the second fastening feature comprises at least two mating slots positioned diagonally opposite each other and congruently aligned with the tab portions of the bottom tray .
Table-board comprising a support , a plate and a tilting mechanism interposed between the support and the plate so as to allow the plate to be tilted between a table position and a board position, such that the tilting mechanism comprises at least a first link rod and a second link rod , the ends (7a, 7b and 8a, 8b) of each of the link rods being articulated, for the one part, respectively at first points of articulation that are separated from one another by a distance e 1 and are secured to the plate , and, for the other part, respectively at second points of articulation that are separated from one another by a distance e 2 and are secured to the support , the first and second points of articulation of the first link rod being separated from one another by a length l 1 and the first and second points of articulation of the second link rod being separated from one another by a length l 2 , characterized in that the distances e 1 , e 2 and the lengths l 1 , l 2 satisfy the following relationship l 1 + e 2 > l 2 + e 1 .
A near-field electromagnetic wave absorbing film comprising a plastic film , and a single- or multi-layered thin metal film formed on a surface of the plastic film , wherein: said thin metal film is provided with plural lines of openings extending and crossing in two directions; pluralities of said openings are arranged in each line such that at least part of adjacent openings are separated; said opening lines extend in two directions crossing at an angle of 45 to 90°; thin metal film portions, remaining after forming said openings , are composed of wide remaining portions partitioned by said opening lines , and bridge-like remaining portions connecting adjacent wide remaining portions ; and said bridge-like remaining portions have widths of 20 μm or less; characterised in that the openings are laser-etched, wherein said near-field electromagnetic wave absorbing film has an electrical resistance of 50 to 300 Ω/100 cm 2 and a light transmittance, measured with laser rays having a wavelength of 660 nm, of 30 to 80%. said thin metal film is provided with plural lines of openings extending and crossing in two directions; pluralities of said openings are arranged in each line such that at least part of adjacent openings are separated; said opening lines extend in two directions crossing at an angle of 45 to 90°; thin metal film portions, remaining after forming said openings , are composed of wide remaining portions partitioned by said opening lines , and bridge-like remaining portions connecting adjacent wide remaining portions ; and said bridge-like remaining portions have widths of 20 μm or less; characterised in that the openings are laser-etched, wherein said near-field electromagnetic wave absorbing film has an electrical resistance of 50 to 300 Ω/100 cm 2 and a light transmittance, measured with laser rays having a wavelength of 660 nm, of 30 to 80%.
Transmission drive device , with a shaft (14; 14a) which is arranged in a longitudinally displaceable manner in the direction of the longitudinal axis thereof in a housing , with a shaft end (15; 15a) which is formed on the end side and is supported at least indirectly on the housing via at least one starting element , wherein either the shaft end or the starting element is of rounded design at least in regions, wherein a bearing point is formed between the starting element and the shaft end (15; 15a), and wherein the starting element is coupled to a damping element (32; 32a to 32d) which permits a movement of the starting element in the event of an axial application of force (F A , F A1 , F A2 ) by means of the shaft (14; 14a), wherein the starting element and/or the damping element (32; 32a to 32d) are/is designed and/or arranged in such a manner that, as the axial application of force (F A , F A1 , F A2 ) increases, the bearing point is at an increasing distance (r) from the longitudinal axis of the shaft (14; 14a), at least from a certain level of the application of force (F A , F A1 , F A2 ), wherein the starting element is designed to be tiltable about an axis arranged at a distance (a 1 ) from the longitudinal axis of the shaft (14; 14a), and, as axial application of force on the shaft (14; 14a) increases, a transverse force component which is directed perpendicularly to the longitudinal axis of the shaft (14; 14a) and which, in the case of radial bearings of the shaft (14; 14a), leads to increased friction in the radial bearings, which increases a self-locking of the transmission drive device, is produced.
A blender, comprising: a blender body having a first inductive coil and a receiving module for receiving a signal; a container body having a second inductive coil and a transmission module for transmitting the signal, wherein the container body includes an outer container body constituting the shape of the appearance of the blender and an inner container body forming an inner space in which food is received, and a container lid opening and closing an open upper surface of the container body , wherein the transmission and reception of the signal are performed between the transmission module and the receiving module by using power generated by an inductive coupling between the first inductive coil and the second inductive coil , wherein the container body comprises a detection module detecting the closure of the container lid , wherein the detection module is electrically connected to the second inductive coil by a conductive member , the conductive member is arranged between the outer container body and the inner container body , said blender being characterised in that the conductive member is arranged to extend in the longitudinal direction of the container body from an upper portion of the container body to a lower portion thereof, and in that a first end of conductive member is electrically connected to a first connector of the detection module and is detachable therefrom, and a second end of conductive member is electrically connected to a second connector of the second inductive coil and is detachable therefrom. a blender body having a first inductive coil and a receiving module for receiving a signal; a container body having a second inductive coil and a transmission module for transmitting the signal, wherein the container body includes an outer container body constituting the shape of the appearance of the blender and an inner container body forming an inner space in which food is received, and a container lid opening and closing an open upper surface of the container body , wherein the transmission and reception of the signal are performed between the transmission module and the receiving module by using power generated by an inductive coupling between the first inductive coil and the second inductive coil , wherein the container body comprises a detection module detecting the closure of the container lid , wherein the detection module is electrically connected to the second inductive coil by a conductive member , the conductive member is arranged between the outer container body and the inner container body , said blender being characterised in that the conductive member is arranged to extend in the longitudinal direction of the container body from an upper portion of the container body to a lower portion thereof, and in that a first end of conductive member is electrically connected to a first connector of the detection module and is detachable therefrom, and a second end of conductive member is electrically connected to a second connector of the second inductive coil and is detachable therefrom.