mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting or quantifying an analyte in a sample, the method comprising: (i) providing said sample; (ii) preparing an analysis sample from said sample; (iii) providing a thin layer chromatography cartridge comprising the TLC plate and a sealed reservoir containing the TLC mobile phase; (iv) loading the analysis sample and one or more reference standards onto the TLC plate of the cartridge; (v) exposing the TLC plate to the TLC mobile phase to perform TLC on said analysis sample in the TLC cartridge to produce a chromatogram; (vi) optically analysing analyte and reference standards bands on the chromatogram, with an imaging device to generate optical signals corresponding to the analyte and reference standards; (vii) detecting or quantifying the analyte in the sample according to said optical signals, characterised in that the TLC cartridge hermetically seals the TLC mobile phase during loading, performance of the TLC process, and analysis of the chromatogram. (i) providing said sample; (ii) preparing an analysis sample from said sample; (iii) providing a thin layer chromatography cartridge comprising the TLC plate and a sealed reservoir containing the TLC mobile phase; (iv) loading the analysis sample and one or more reference standards onto the TLC plate of the cartridge; (v) exposing the TLC plate to the TLC mobile phase to perform TLC on said analysis sample in the TLC cartridge to produce a chromatogram; (vi) optically analysing analyte and reference standards bands on the chromatogram, with an imaging device to generate optical signals corresponding to the analyte and reference standards; (vii) detecting or quantifying the analyte in the sample according to said optical signals,
A method of controlling a motor (6, 7) in a tape drive to cause movement of a tape comprising: generating a control signal (Vsu-c, V TU-C) for the motor to cause the motor to rotate to cause a tape movement, the control signal being generated based upon a target tape movement (V REF) and a predetermined characteristic of the motor (ACsu, AC TU); receiving first data indicative of an updated target tape movement (V REF) at a first plurality of times during said movement; receiving second data indicative of the generated control signal (Vsu, V TU) at a second plurality of times during said movement; determining a relationship between the first data and second data (ERR1, ERR2); and generating a further control signal (Vsu-c, V TU-C) for the motor to cause a further tape movement based upon said determined relationship. generating a control signal (Vsu-c, V TU-C) for the motor to cause the motor to rotate to cause a tape movement, the control signal being generated based upon a target tape movement (V REF) and a predetermined characteristic of the motor (ACsu, AC TU); receiving first data indicative of an updated target tape movement (V REF) at a first plurality of times during said movement; receiving second data indicative of the generated control signal (Vsu, V TU) at a second plurality of times during said movement; determining a relationship between the first data and second data (ERR1, ERR2); and generating a further control signal (Vsu-c, V TU-C) for the motor to cause a further tape movement based upon said determined relationship.
A surgical training device, comprising: a model comprising an elongate body having an inner surface and an outer surface the inner surface defining a lumen with a proximal opening and a longitudinal axis, characterized in the model further comprising a plurality of eyelets connected to the inner surface of the lumen and extending inwardly from the inner surface into the lumen; each eyelet having a head portion with an aperture sized for passing a suture needle and suture; the aperture of each eyelet defining an aperture plane; wherein the elongate body comprises two halves coupled to provide access to the lumen. a model comprising an elongate body having an inner surface and an outer surface the inner surface defining a lumen with a proximal opening and a longitudinal axis, characterized in the model further comprising a plurality of eyelets connected to the inner surface of the lumen and extending inwardly from the inner surface into the lumen; each eyelet having a head portion with an aperture sized for passing a suture needle and suture; the aperture of each eyelet defining an aperture plane; wherein the elongate body comprises two halves coupled to provide access to the lumen.
A table saw assembly comprising: a drop arm assembly movable along a drop plane; and a saw control unit assembly configured to control the table saw assembly, the saw control unit assembly including a printed circuit board generally defining a PCB plane which is not perpendicular to the drop plane, a bevel carriage, characterised in that the PCB is mounted to the bevel carriage, wherein the PCB plane defines an angle of about 15° with respect to the drop plane. a drop arm assembly movable along a drop plane; and a saw control unit assembly configured to control the table saw assembly, the saw control unit assembly including a printed circuit board generally defining a PCB plane which is not perpendicular to the drop plane, a bevel carriage, characterised in that the PCB is mounted to the bevel carriage, wherein the PCB plane defines an angle of about 15° with respect to the drop plane.
A server device, comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the server device at least to: receive a request for a neural network from a client device, wherein the request comprises at least one requirement for the neural network; obtain a first compressed neural network based on the at least one requirement; transmit the first compressed neural network to the client device; obtain a residual between at least a subset of the first compressed neural network and at least a subset of a second compressed neural network in response to receiving, from the client device or a third-party device, an indication that the first compressed neural network does not satisfy a performance requirement, wherein the first compressed neural network and the second compressed neural network are configured to perform a same task, wherein the second compressed neural network is obtainable based on adding the residual to the first compressed neural network, and wherein a size and performance of the second compressed neural network are higher than a size and performance of the first compressed neural network; and transmit the residual to the client device. at least one processor; and at least one memory including computer program code; receive a request for a neural network from a client device, wherein the request comprises at least one requirement for the neural network; obtain a first compressed neural network based on the at least one requirement; transmit the first compressed neural network to the client device; obtain a residual between at least a subset of the first compressed neural network and at least a subset of a second compressed neural network in response to receiving, from the client device or a third-party device, an indication that the first compressed neural network does not satisfy a performance requirement, wherein the first compressed neural network and the second compressed neural network are configured to perform a same task, wherein the second compressed neural network is obtainable based on adding the residual to the first compressed neural network, and wherein a size and performance of the second compressed neural network are higher than a size and performance of the first compressed neural network; and transmit the residual to the client device.
A light emitting apparatus, comprising: an LED array configured to emit light, the LED array supported on a substrate. a housing having a transparent portion in the shape of a tube with caps at the ends to transmit the light emitted by said LED array; and a plurality of fans, positioned within the housing and supported by the substrate, adapted to cool said LED array, each of the plurality of fans being positioned beneath a corresponding one of an LED of the LED array, wherein each of the plurality of fans is mounted underneath the corresponding LED of said LED array. an LED array configured to emit light, the LED array supported on a substrate. a housing having a transparent portion in the shape of a tube with caps at the ends to transmit the light emitted by said LED array; and a plurality of fans, positioned within the housing and supported by the substrate, adapted to cool said LED array, each of the plurality of fans being positioned beneath a corresponding one of an LED of the LED array, wherein each of the plurality of fans is mounted underneath the corresponding LED of said LED array.
A method for the transport and/or spreading out of laundry items hanging from clamps, wherein a region of a respective laundry item is inserted into a clamp and the laundry item is ascertained, in that it is directly determined by detection of at least one location of the region inserted into the clamp whether the region of the laundry item to be inserted into the respective clamp is present in that clamp characterized in that the direct determination by means of noncontact sensing of the at least one location of the region of the laundry item held in the respective clamp occurs through at least one opening in the form of a window of the clamp.
A minimally invasive surgical tool comprising: an instrument shaft extending along an instrument shaft axis; a drive shaft having a distal end and a drive axis, the drive shaft being mounted for rotation within the instrument shaft such that the drive axis is offset from the instrument shaft axis; a driven shaft having a proximal end and a driven axis; a coupling member coupling the drive shaft with the driven shaft so that a rate of rotation of the drive and driven shafts (392,396) are substantially equal when the drive axis and the driven axis are non-parallel; and an end effector coupled with the instrument shaft so that an orientation of the end effector can be varied in two dimensions relative to the instrument shaft, the end effector comprising an articulated feature coupled with the driven shaft so that a rotation of the driven shaft about the driven axis produces an articulation of the feature. an instrument shaft extending along an instrument shaft axis; a drive shaft having a distal end and a drive axis, the drive shaft being mounted for rotation within the instrument shaft such that the drive axis is offset from the instrument shaft axis; a driven shaft having a proximal end and a driven axis; a coupling member coupling the drive shaft with the driven shaft so that a rate of rotation of the drive and driven shafts (392,396) are substantially equal when the drive axis and the driven axis are non-parallel; and an end effector coupled with the instrument shaft so that an orientation of the end effector can be varied in two dimensions relative to the instrument shaft, the end effector comprising an articulated feature coupled with the driven shaft so that a rotation of the driven shaft about the driven axis produces an articulation of the feature.
Measuring module for a busbar system, in which an electrical device is contactable with the busbars of the busbar system, via a busbar adapter placed on busbars (2-i), for connection to current phases, wherein the measuring module is insertable between the busbar adapter and the electrical device and contains a measuring unit which measures, as electrical characteristic values, the phase shifts (Δφ) in the current phases applied to the electrical device via the inserted measuring module, and reports the measurement results to an external evaluation unit, the measuring module being constructionally configured in such a way that the measuring module can be placed on the busbar adapter when said adapter is under electrical voltage, without there being a risk for the user, and the measuring module having a transmission unit connected to the measuring unit, contacts of the measuring module being introduced into the measuring module in a finger-safe manner, in such a way that the measuring module and/or the electrical device can be mounted and dismounted live.
A pebble-bed high-temperature gas-cooled reactor including a telescoped control rod, comprising an inner rod, an outer rod and a guide cylinder assembly which are vertically and coaxially arranged, wherein the outer rod and the guide cylinder assembly are hollow cylindrical bodies; the top end of the inner rod can move up and down inside the outer rod and the other end of the inner rod moves up and down, along with the top end, inside a control rod passage which is positioned below the guide cylinder assembly and is coaxial with the guide cylinder assembly; and the top end of the outer rod can move up and down in the guide cylinder assembly and the other end of the outer rod moves up and down, along with the top end, inside the control rod passage, characterized in that the inner rod is of a multi-section structure and comprises a coupling head assembly, an anti-impact head assembly and a plurality of internal section rods connected in series by sphere articulated joints, one end of the coupling head assembly is connected with the internal section rod at the first section and the other end of the coupling head assembly is connected with a loop chain of a control rod driving mechanism; and one end of the anti-impact head assembly is connected with the internal section rod at the tail section.
A light-emitting diode streetlight comprising: a connection member that is placed on top of a post; a transparent or translucent protective cover that is placed on top of the connection member; at least one LED module that is surrounded by the protective cover; a heat sink that radiates heat generated from the LED module outwardly; a top cover that is detachably coupled on the upper side of the heat sink, to thus form an accommodation space between the heat sink and the top cover, and to thereby accommodate a power supply for the LED module; and a reflector that is disposed between the heat sink and the top cover, and has a diameter larger than that of the heat sink, wherein the heat sink is placed on top of the protective cover, to thus form an accommodation space that accommodates the LED module together with the connection member, in which the LED module is placed on the bottom surface of the heat sink. a connection member that is placed on top of a post; a transparent or translucent protective cover that is placed on top of the connection member; at least one LED module that is surrounded by the protective cover; a heat sink that radiates heat generated from the LED module outwardly; a top cover that is detachably coupled on the upper side of the heat sink, to thus form an accommodation space between the heat sink and the top cover, and to thereby accommodate a power supply for the LED module; and a reflector that is disposed between the heat sink and the top cover, and has a diameter larger than that of the heat sink, wherein the heat sink is placed on top of the protective cover, to thus form an accommodation space that accommodates the LED module together with the connection member, in which the LED module is placed on the bottom surface of the heat sink.
A tire wear prediction system, comprising: a wear prediction unit for predicting a wear state of a tire mounted at a predetermined wheel position of a vehicle based on a traveling state of the vehicle; a change history acquisition unit for acquiring a change history including rotation of the wheel position on which the tire is mounted or a content of replacement with another tire; a wear state correction unit for correcting wear characteristics of the tire predicted by the wear prediction unit based on the change history; and a wear state display unit for displaying the wear state predicted by the wear prediction unit, wherein the wear prediction unit predicts the wear state of the tire based on wear characteristics corrected by the wear state correction unit, characterized in that the wear state display unit displays the wear state for each type of wear cause, wherein the wear cause includes an ideal, driving wheel application, steering wheel application and load application. a wear prediction unit for predicting a wear state of a tire mounted at a predetermined wheel position of a vehicle based on a traveling state of the vehicle; a change history acquisition unit for acquiring a change history including rotation of the wheel position on which the tire is mounted or a content of replacement with another tire; a wear state correction unit for correcting wear characteristics of the tire predicted by the wear prediction unit based on the change history; and a wear state display unit for displaying the wear state predicted by the wear prediction unit, wherein the wear prediction unit predicts the wear state of the tire based on wear characteristics corrected by the wear state correction unit, characterized in that the wear state display unit displays the wear state for each type of wear cause, wherein the wear cause includes an ideal, driving wheel application, steering wheel application and load application.
A filter element (100; 100'; 100") for filtering a fluid, comprising at least the following parts arranged in this order along a middle axis: - a first clamping ring (10; 10') arranged on an end face of the filter element (100; 100'). - a first filter disk (30; 30'; 30"), - a first inner supporting plate (40; 40'; 40") provided with holes, for supporting the first filter disk (30; 30'; 30) - a second inner supporting plate (40; 40'; 40") provided with holes; - a second filter disk (30; 30'; 30") arranged on the second inner supporting plate (40; 40'; 40"), and - a second clamping ring (20; 10') which is arranged on the other end face and is connected to the first clamping ring by means of connecting elements, - an inner flow channel (102; 102') extending between the first and second inner supporting plates (40; 40'; 40"); characterized in that the filter disks (30; 30'; 30") and the inner supporting plates (40; 40'; 40") are arranged within a housing which is formed by the clamping rings (10, 20; 10'), at least one outer ring (14; 14'; 14") and by outer supporting plates (12, 22; 12', 12") each being provided with holes and covering a respective filter disk (30; 30'; 30") on the outside. - a first clamping ring (10; 10') arranged on an end face of the filter element (100; 100'). - a first filter disk (30; 30'; 30"), - a first inner supporting plate (40; 40'; 40") provided with holes, for supporting the first filter disk (30; 30'; 30) - a second inner supporting plate (40; 40'; 40") provided with holes; - a second filter disk (30; 30'; 30") arranged on the second inner supporting plate (40; 40'; 40"), and - a second clamping ring (20; 10') which is arranged on the other end face and is connected to the first clamping ring by means of connecting elements, - an inner flow channel (102; 102') extending between the first and second inner supporting plates (40; 40'; 40");
A capacity control valve comprising: a valve housing provided with a suction fluid supply chamber to which a suction fluid of suction pressure (Ps) is supplied, and a control fluid supply chamber to which a control fluid of control pressure (Pc) is supplied; a CS valve (50, 150) formed by a CS valve element (51, 151) driven in an axial direction by a solenoid, and a CS valve seat (10a, 110a) provided in a communication passage between the control fluid supply chamber and the suction fluid supply chamber, the CS valve (50, 150) being connectable to and separable from the CS valve seat (10a, 110a); and a pressure drive portion arranged in the control fluid supply chamber in a sealed manner and biasing the CS valve element (51, 151) in an opposite direction to a driving direction of the solenoid, wherein the pressure drive portion is a pressure sensitive body (61, 611) configured to be extendable and contractible in the axial direction, characterized in that the control fluid is applied to an outside of the pressure sensitive body (61, 611), and the suction fluid is introduced to an inside of the pressure sensitive body (61, 611). a valve housing provided with a suction fluid supply chamber to which a suction fluid of suction pressure (Ps) is supplied, and a control fluid supply chamber to which a control fluid of control pressure (Pc) is supplied; a CS valve (50, 150) formed by a CS valve element (51, 151) driven in an axial direction by a solenoid, and a CS valve seat (10a, 110a) provided in a communication passage between the control fluid supply chamber and the suction fluid supply chamber, the CS valve (50, 150) being connectable to and separable from the CS valve seat (10a, 110a); and a pressure drive portion arranged in the control fluid supply chamber in a sealed manner and biasing the CS valve element (51, 151) in an opposite direction to a driving direction of the solenoid, wherein the pressure drive portion is a pressure sensitive body (61, 611) configured to be extendable and contractible in the axial direction, characterized in that the control fluid is applied to an outside of the pressure sensitive body (61, 611), and the suction fluid is introduced to an inside of the pressure sensitive body (61, 611).
Optoelectronic semiconductor component comprising - a connection carrier having at least two connection locations and having a carrier top side, - at least one optoelectronic semiconductor chip which is fitted to the connection carrier at the carrier top side and is in direct contact with the connection carrier, - a ring-shaped potting body, which is fashioned from a soft silicone and which is in direct contact with the carrier top side but has no direct contact with the semiconductor chip, - a glass body in the form of a glass plate, which is applied on the potting body, such that an interspace is formed between the semiconductor chip and the glass body, wherein the connection carrier is fashioned with a silicone matrix having a fibre reinforcement, and, wherein the glass body and/or the potting body optionally comprise different or else identical admixtures. - a connection carrier having at least two connection locations and having a carrier top side, - at least one optoelectronic semiconductor chip which is fitted to the connection carrier at the carrier top side and is in direct contact with the connection carrier, - a ring-shaped potting body, which is fashioned from a soft silicone and which is in direct contact with the carrier top side but has no direct contact with the semiconductor chip, - a glass body in the form of a glass plate, which is applied on the potting body, such that an interspace is formed between the semiconductor chip and the glass body,