mhurhangee/patent-ind-claim-en huggingface dataset:
Joining element for trailing edges of aerodynamic profiles, insertable in the edge of a structure with an aerodynamic profile made up of a converging upper skin and a lower skin , wherein the joining element is made up of an elongated laminar body , having: - an upper face orientable towards an internal face of the upper skin ; - a lower face orientable towards an internal face of the lower skin ; - an external longitudinal edge ; - an internal longitudinal edge ; and - two side profiles ; wherein the laminar body comprises: - on the upper face , consecutively from the internal longitudinal edge : - a first straight section delimited between the internal longitudinal edge and a first longitudinal projection ; - a first skirt , delimited between the first longitudinal projection and a second longitudinal projection ; and - a second skirt , delimited between the second longitudinal projection and the external longitudinal edge ; and - on the lower face , consecutively from the internal longitudinal edge : - a second straight section delimited between the internal longitudinal edge and a third longitudinal projection ; and - a third straight section delimited between the third longitudinal projection and the external longitudinal edge . - an upper face orientable towards an internal face of the upper skin ; - a lower face orientable towards an internal face of the lower skin ; - an external longitudinal edge ; - an internal longitudinal edge ; and - two side profiles ; - on the upper face , consecutively from the internal longitudinal edge : - a first straight section delimited between the internal longitudinal edge and a first longitudinal projection ; - a first skirt , delimited between the first longitudinal projection and a second longitudinal projection ; and - a second skirt , delimited between the second longitudinal projection and the external longitudinal edge ; and - a first straight section delimited between the internal longitudinal edge and a first longitudinal projection ; - a first skirt , delimited between the first longitudinal projection and a second longitudinal projection ; and - a second skirt , delimited between the second longitudinal projection and the external longitudinal edge ; and - on the lower face , consecutively from the internal longitudinal edge : - a second straight section delimited between the internal longitudinal edge and a third longitudinal projection ; and - a third straight section delimited between the third longitudinal projection and the external longitudinal edge . - a second straight section delimited between the internal longitudinal edge and a third longitudinal projection ; and - a third straight section delimited between the third longitudinal projection and the external longitudinal edge .
A circuit comprising: a differential stage comprising a first transistor (M3) having a control terminal electrically connected to a first differential input (In 1 ) and an output terminal electrically connected to a first differential output (Out 1 ), the differential stage further comprising a second transistor (M4) having a control terminal electrically connected to a second differential input (In 2 ) and an output terminal electrically connected to a second differential output (Out 2 ); a first bias transistor (M1) having an output terminal electrically connected to the control terminal of the first transistor; a second bias transistor (M2) having an output terminal electrically connected to the control terminal of the second transistor; a first feedback network electrically connected between a control terminal of the first bias transistor and the output terminal of the first bias transistor; and a second feedback network electrically connected between a control terminal of the second bias transistor and the output terminal of the second bias transistor, wherein the first and second feedback networks, each, includes a capacitive feedback circuit (C) and is configured to increase a gain characteristic of the differential stage by reducing, based on the respective feedback signal, a transconductance of the respective biasing transistor. a differential stage comprising a first transistor (M3) having a control terminal electrically connected to a first differential input (In 1 ) and an output terminal electrically connected to a first differential output (Out 1 ), the differential stage further comprising a second transistor (M4) having a control terminal electrically connected to a second differential input (In 2 ) and an output terminal electrically connected to a second differential output (Out 2 ); a first bias transistor (M1) having an output terminal electrically connected to the control terminal of the first transistor; a second bias transistor (M2) having an output terminal electrically connected to the control terminal of the second transistor; a first feedback network electrically connected between a control terminal of the first bias transistor and the output terminal of the first bias transistor; and a second feedback network electrically connected between a control terminal of the second bias transistor and the output terminal of the second bias transistor, wherein the first and second feedback networks, each, includes a capacitive feedback circuit (C) and is configured to increase a gain characteristic of the differential stage by reducing, based on the respective feedback signal, a transconductance of the respective biasing transistor.
The use as an additive to polymers of materials having the following structure: wherein R and R 1 may be the same or different and each independently represents an alkyl or aryl group, X may be hydrogen or a C 1 to C 20 alkyl group which may be branched or linear and wherein the aromatic ring substituent joined to polymer B is positioned meta or para to the aromatic ring substituent joined to polymer A and, wherein polymer A is a non-polar polymer formed by metallocene catalysis and polymer B is a polymer formed by radical catalysis of a polar monomer.
Contact point for securing to an object to be secured or handled, comprising a lower part having a connection means for connecting the attachment point to an object to be secured or handled, characterised in that the lower part has a bearing bush , and that the attachment point comprises an upper part that can be rotated relative to the lower part and engaging into the bearing bush of the lower part with a bearing section , wherein, in the said attachment point , the upper part extends over the upper side of the lower part with its radially outer edge region , and a labyrinth seal is formed between the edge region of the upper part , engaging over the lower part , and the lower part , by a labyrinth protrusion formed on the upper part and engaging into a lower-part labyrinth groove , wherein at least the wall of the labyrinth groove pointing outwards in the radial direction, and the complementary side of the labyrinth protrusion pointing inwards in the radial direction, are curved in a complementary manner to one another in the sections where they are engaged, where the two parts - the upper part and the lower part - can be brought into contact with one another due to a tilting of the upper part relative to the lower part , with a transverse loading of the attachment point .
An apparatus, comprising: a crossbar including a plurality of crossbar nodes arranged in an array of rows and columns, each crossbar node being programmable to either a high resistance state or a low resistance state, the crossbar being configured to sum a plurality of analog input activation signals over each column of crossbar nodes and output a plurality of summed activation signals; and a multiplier, coupled to the crossbar, including a plurality of multiplier nodes, each multiplier node being programmable to a different conductance level proportional to one of a plurality of neural network weights, the multiplier being configured to input the plurality of summed activation signals to the multiplier nodes, perform a multiply-and-accumulate (MAC) operation, and output an analog output activation signal. a crossbar including a plurality of crossbar nodes arranged in an array of rows and columns, each crossbar node being programmable to either a high resistance state or a low resistance state, the crossbar being configured to sum a plurality of analog input activation signals over each column of crossbar nodes and output a plurality of summed activation signals; and a multiplier, coupled to the crossbar, including a plurality of multiplier nodes, each multiplier node being programmable to a different conductance level proportional to one of a plurality of neural network weights, the multiplier being configured to input the plurality of summed activation signals to the multiplier nodes, perform a multiply-and-accumulate (MAC) operation, and output an analog output activation signal.
A smart sensor , comprising: a plurality of analog-to-digital converters (101a,b,c,d), ADCs, configured to receive analog signals from a sensor module (103a,b,c,d); a plurality of channel modules (105a,b,c,d), each channel module (105a,b,c,d) having a channel (105a,b,c,d) and being connected to a respective ADC (101a,b,c,d), each channel module (105a,b,c,d) comprising a limited data processing module (107a,b,c,d) configured to provide initial processing; a data control module operatively connected to each of the plurality of channel modules (105a,b,c,d) and configured to select a selected channel (105a,b,c,d) of the plurality of channel modules (105a,b,c,d) to receive initially processed data from the limited data processing module (107a,b,c,d) of the selected channel (105a,b,c,d), characterized in that the data control module includes a data handler configured to switch between the plurality of channels (105a,b,c,d) based on a sampling rate of a respective channel (105a,b,c,d), and wherein the data control module is configured to interface an external memory to store data in the external memory and/or to read data from the external memory ; and a batch processing module operatively connected to the data control module and configured to receive the initially processed data of the selected channel (105a,b,c,d) from the data control module to provide further processing of the initially processed data. a plurality of analog-to-digital converters (101a,b,c,d), ADCs, configured to receive analog signals from a sensor module (103a,b,c,d); a plurality of channel modules (105a,b,c,d), each channel module (105a,b,c,d) having a channel (105a,b,c,d) and being connected to a respective ADC (101a,b,c,d), each channel module (105a,b,c,d) comprising a limited data processing module (107a,b,c,d) configured to provide initial processing; a data control module operatively connected to each of the plurality of channel modules (105a,b,c,d) and configured to select a selected channel (105a,b,c,d) of the plurality of channel modules (105a,b,c,d) to receive initially processed data from the limited data processing module (107a,b,c,d) of the selected channel (105a,b,c,d), characterized in that the data control module includes a data handler configured to switch between the plurality of channels (105a,b,c,d) based on a sampling rate of a respective channel (105a,b,c,d), and wherein the data control module is configured to interface an external memory to store data in the external memory and/or to read data from the external memory ; and a batch processing module operatively connected to the data control module and configured to receive the initially processed data of the selected channel (105a,b,c,d) from the data control module to provide further processing of the initially processed data.
Immunologically active phyto-mixture exhibiting an antimicrobial efficiency against transient skin flora and an anti-inflammatory efficiency, the phyto-mixture comprising at least one ethanolic plant extract selected from a) Bidens alba (Bid. alba), Bidens pilosa (Bid. pilosa) from genus Bidens of the Asteraceae family, and comprises at least one further ethanolic plant extract selected from b) Stachytarpheta jamaicensis (Sta. jamaicensis), Stachytarpheta cayennensis (Sta. cayennensis), Stachytarpheta indica (Sta. indica) from genus Stachytarpheta of the Verbenaceae family, and/or c) Bursera simaruba (Bur. simaruba), Bursera microphylla (Bur. microphylla) and Bursera glabrifolia (Bur. glabrifolia) from genus Bursera of the Burseraceae family. a) Bidens alba (Bid. alba), Bidens pilosa (Bid. pilosa) from genus Bidens of the Asteraceae family, and comprises at least one further ethanolic plant extract selected from b) Stachytarpheta jamaicensis (Sta. jamaicensis), Stachytarpheta cayennensis (Sta. cayennensis), Stachytarpheta indica (Sta. indica) from genus Stachytarpheta of the Verbenaceae family, and/or c) Bursera simaruba (Bur. simaruba), Bursera microphylla (Bur. microphylla) and Bursera glabrifolia (Bur. glabrifolia) from genus Bursera of the Burseraceae family.
An implant insertion tool , comprising: a tube with a handle end , an inserter end having an opening, and a curved portion located between the handle end and the inserter end; a driveshaft with an actuator , and an elongated portion , the driveshaft extending within the tube so that the actuator is proximate to the opening; a connecting shaft coupleable to an implant and rotatable within a portion of the driveshaft; a knob attached to the handle end and the driveshaft, wherein turning the knob rotates the actuator; wherein the tube has a first longitudinal axis (A-A') on a first side of the curved portion and a second longitudinal axis (B-B') transverse with the first longitudinal axis (A-A') on a second side of the curved portion , wherein the actuator is a first rigid portion and the elongated portion is a second rigid portion , the first and second rigid portions being joined by a linkage in the curved portion , wherein the linkage includes a first gear formed or otherwise attached to an interior end of elongated portion and a second gear formed or otherwise attached to an interior end of actuator . a tube with a handle end , an inserter end having an opening, and a curved portion located between the handle end and the inserter end; a driveshaft with an actuator , and an elongated portion , the driveshaft extending within the tube so that the actuator is proximate to the opening; a connecting shaft coupleable to an implant and rotatable within a portion of the driveshaft; a knob attached to the handle end and the driveshaft, wherein turning the knob rotates the actuator; wherein the tube has a first longitudinal axis (A-A') on a first side of the curved portion and a second longitudinal axis (B-B') transverse with the first longitudinal axis (A-A') on a second side of the curved portion , wherein the actuator is a first rigid portion and the elongated portion is a second rigid portion , the first and second rigid portions being joined by a linkage in the curved portion , wherein the linkage includes a first gear formed or otherwise attached to an interior end of elongated portion and a second gear formed or otherwise attached to an interior end of actuator .
A solid-state lasing device comprising: a micro-chip oscillator "MCO" affixed to a first tube ; and a volume Bragg grating "VBG" plate affixed to a second tube that is configured to be telescopically coupled to the first tube with a slip fit such that the VBG plate is concentrically aligned with and is positioned at a specified distance from the MCO ; wherein the second tube is configured so that at least a portion of the second tube is received within the first tube ; wherein the VBG plate is affixed to the portion of the second tube ; and wherein the second tube is configured such that the VBG plate is positioned within the first tube adjacent to the MCO . a micro-chip oscillator "MCO" affixed to a first tube ; and a volume Bragg grating "VBG" plate affixed to a second tube that is configured to be telescopically coupled to the first tube with a slip fit such that the VBG plate is concentrically aligned with and is positioned at a specified distance from the MCO ; wherein the second tube is configured so that at least a portion of the second tube is received within the first tube ; wherein the VBG plate is affixed to the portion of the second tube ; and wherein the second tube is configured such that the VBG plate is positioned within the first tube adjacent to the MCO .
An imaging cassette comprising a base support, a first image sensor, a marker, and a light-tight lid, wherein the imaging cassette is configured to receive a piece of exposable film, wherein the marker is a light emitting diode or a liquid crystal diode configured to identify and/or align the exposable film in the imaging cassette.
A microneedle provided on a substrate , comprising: an elongated body extending from a distal end thereof with a bevel to a proximal end on the substrate along a longitudinal axis, wherein the elongated body comprises a capillary bore extending in a longitudinal direction thereof and defines a fluid path ; the proximal end is connected to the substrate and the capillary bore is in fluid communication with a fluid channel of the substrate; said microneedle having a length of 300 to 600 μm, wherein the cross-sectional area of the capillary bore in the distal end is larger than the cross-sectional area of the capillary bore in the proximal end, characterized in that the cross sectional area of the capillary bore gradually decreases from the distal end towards the proximal end along the longitudinal direction. the elongated body comprises a capillary bore extending in a longitudinal direction thereof and defines a fluid path ; the proximal end is connected to the substrate and the capillary bore is in fluid communication with a fluid channel of the substrate; said microneedle having a length of 300 to 600 μm, wherein the cross-sectional area of the capillary bore in the distal end is larger than the cross-sectional area of the capillary bore in the proximal end, characterized in that the cross sectional area of the capillary bore gradually decreases from the distal end towards the proximal end along the longitudinal direction.
An electrostatic device comprising: a member having a proximal end (P) and a distal end (D) at opposing ends of an axis ; a first electrode positioned at the proximal end (P), the first electrode configured to electrostatically couple a principal signal to a sensor matrix of a computing device , such that an intensity of the principal signal that is sensed by the sensor matrix increases as the first electrode approaches the sensor matrix ; a drive circuit configured to generate the principal signal, the principal signal being an active signal; and a second electrode positioned a spaced distance from the first electrode , the spaced distance configured to cause a designated capacitance between the first electrode and the second electrode to exceed a capacitance threshold and to cause the second electrode to electrostatically couple a secondary signal, which is based on the principal signal, to the sensor matrix as the first electrode is placed proximate the sensor matrix . a member having a proximal end (P) and a distal end (D) at opposing ends of an axis ; a first electrode positioned at the proximal end (P), the first electrode configured to electrostatically couple a principal signal to a sensor matrix of a computing device , such that an intensity of the principal signal that is sensed by the sensor matrix increases as the first electrode approaches the sensor matrix ; a drive circuit configured to generate the principal signal, the principal signal being an active signal; and a second electrode positioned a spaced distance from the first electrode , the spaced distance configured to cause a designated capacitance between the first electrode and the second electrode to exceed a capacitance threshold and to cause the second electrode to electrostatically couple a secondary signal, which is based on the principal signal, to the sensor matrix as the first electrode is placed proximate the sensor matrix .
Medical instrument having a first branch and a second branch , which in a working position of the instrument are coupled to one another by a connecting screw and are pivotable relative to one another about a common pivot axis , wherein a longitudinal axis of the connecting screw defines the pivot axis , characterized in that arranged or formed on the connecting screw is a screw-in element projecting therefrom in an assembly position, in that the screw-in element has at least one screw-in tool contact face for being brought into force-locking and/or positive-locking engagement with a screw-in tool , and in that the screw-in element is separable from the connecting screw after coupling the first branch and the second branch to one another.
A computer-implemented method executed by one or more processors , the method comprising: receiving a request for a first instruction included in a software application ; storing a first cache entry corresponding to the first instruction in a cache structure ; receiving a request for a second instruction included in the software application, the second instruction different than the first instruction ; in response to receiving a request for the second instruction, determining that a cache entry must be removed from the cache structure to create space to store a second cache entry corresponding to the second instruction ; in response to determining that a cache entry must be removed, determining that the first cache entry corresponding to the first instruction should be removed from the cache structure based on temporal locality attributes associated with at least one of the first instruction or the second instruction, the temporal locality attributes representing a likelihood that additional requests will be received for an associated instruction while the instruction is stored in a cache structure ; in response to determining that the first cache entry corresponding to the first instruction should be removed, removing the first cache entry from the cache structure ; and in response to removing the first cache entry, storing the second cache entry in the cache structure , the method being characterized in that the temporal locality attributes are determined at least partly during execution of the software application and incoming cache entries are treated as non-temporal in nested function calls. receiving a request for a first instruction included in a software application ; storing a first cache entry corresponding to the first instruction in a cache structure ; receiving a request for a second instruction included in the software application, the second instruction different than the first instruction ; in response to receiving a request for the second instruction, determining that a cache entry must be removed from the cache structure to create space to store a second cache entry corresponding to the second instruction ; in response to determining that a cache entry must be removed, determining that the first cache entry corresponding to the first instruction should be removed from the cache structure based on temporal locality attributes associated with at least one of the first instruction or the second instruction, the temporal locality attributes representing a likelihood that additional requests will be received for an associated instruction while the instruction is stored in a cache structure ; in response to determining that the first cache entry corresponding to the first instruction should be removed, removing the first cache entry from the cache structure ; and in response to removing the first cache entry, storing the second cache entry in the cache structure , the method being characterized in that the temporal locality attributes are determined at least partly during execution of the software application and incoming cache entries are treated as non-temporal in nested function calls.