mhurhangee/ep-ind-claims huggingface dataset:
A box, comprising: a floor; at least two pairs of respectively opposing side walls (14a, 14b, 16a, 16b), wherein a first one of the side walls extends upwards from the floor in a vertical direction at least partially only by a retrieval height which is lower than the height of one or several of the remaining side walls (14a, 14b, 16a), to define a lateral opening with dimensions which enable an access to and the removal of products contained in the box through the lateral opening; and a locking element extending between the two opposing side walls (14a, 14b) which abut on the first side wall, and which is moveable between a first position and a second position, wherein the locking element is arranged in the first position between the opposing side walls and and spaced apart from the first side wall, wherein the locking element is arranged in the second position overlapping the first side wall; and wherein the locking element includes a bracket extending between the opposing side walls (14a, 14b) and two struts (104, 106) arranged at the opposing ends (102a, 102b) of the bracket, characterized in that an end of the struts (104, 106) spaced apart from the bracket is arranged rotationally moveable at the corresponding side wall (14a, 14b). a floor; at least two pairs of respectively opposing side walls (14a, 14b, 16a, 16b), wherein a first one of the side walls extends upwards from the floor in a vertical direction at least partially only by a retrieval height which is lower than the height of one or several of the remaining side walls (14a, 14b, 16a), to define a lateral opening with dimensions which enable an access to and the removal of products contained in the box through the lateral opening; and a locking element extending between the two opposing side walls (14a, 14b) which abut on the first side wall, and which is moveable between a first position and a second position, wherein the locking element is arranged in the first position between the opposing side walls and and spaced apart from the first side wall, wherein the locking element is arranged in the second position overlapping the first side wall; and wherein the locking element includes a bracket extending between the opposing side walls (14a, 14b) and two struts (104, 106) arranged at the opposing ends (102a, 102b) of the bracket, characterized in that an end of the struts (104, 106) spaced apart from the bracket is arranged rotationally moveable at the corresponding side wall (14a, 14b).
A ball striking device head, comprising: a sole member made, at least in part, from a first material having a first density, wherein the first material includes at least one member selected from the group consisting of a steel material, a titanium alloy, and a polymeric material; a first intermediate body member made, at least in part, from a second material having a second density, wherein the second density is less than the first density, and wherein the second material includes at least one member selected from the group consisting of a magnesium alloy, an aluminum alloy, a titanium alloy, and a polymeric material; a second intermediate body member located between the first intermediate body member and the crown member; a crown member made, at least in part, from a third material having a third density, wherein the third density is less than the second density, and wherein the third material includes at least one member selected from the group consisting of a carbon fiber composite material, a glass fiber composite material, a titanium alloy material, and a polymeric material, and wherein the first intermediate body member is located between the sole member and the crown member; and a face member, wherein the second intermediate body member is made, at least in part, from a fourth material having a fourth density, and wherein the fourth density is less than the second density. a sole member made, at least in part, from a first material having a first density, wherein the first material includes at least one member selected from the group consisting of a steel material, a titanium alloy, and a polymeric material; a first intermediate body member made, at least in part, from a second material having a second density, wherein the second density is less than the first density, and wherein the second material includes at least one member selected from the group consisting of a magnesium alloy, an aluminum alloy, a titanium alloy, and a polymeric material; a second intermediate body member located between the first intermediate body member and the crown member; a crown member made, at least in part, from a third material having a third density, wherein the third density is less than the second density, and wherein the third material includes at least one member selected from the group consisting of a carbon fiber composite material, a glass fiber composite material, a titanium alloy material, and a polymeric material, and wherein the first intermediate body member is located between the sole member and the crown member; and a face member, wherein the second intermediate body member is made, at least in part, from a fourth material having a fourth density, and wherein the fourth density is less than the second density.
An in-vehicle system in a vehicle, said system comprising: - a computer - a control device being able to cooperate with the computer to perform a plurality of functions, said functions of said plurality of functions respectively providing outputs corresponding to outputs of the computer, each of these functions having an output state, said control device comprising: - a control module, - a reset module, adapted to reset said control module upon receipt of a reset signal, said reset having a reset time less than a predetermined maximum reset time, and - a monitoring module, commonly referred to as a "watchdog", adapted to detect a malfunction of the computer, said monitoring module being adapted to send the reset signal to said reset module if a malfunction is detected, and wherein the control module comprises a sub-module of at least one temporarily interruptible function, said at least one temporarily interruptible function having a maximum permitted duration of interruption greater than said predetermined maximum reset duration, during which the outputs of said at least one temporarily interruptible function are not provided and in that the control module further comprises a maintained functions sub-module and an interruptible functions sub-module, the outputs of said maintained functions being saved and provided during a reset of the computer and said interruptible functions and temporarily interruptible functions being interrupted during a reset of the computer without time limitation. - a computer - a control device being able to cooperate with the computer to perform a plurality of functions, said functions of said plurality of functions respectively providing outputs corresponding to outputs of the computer, each of these functions having an output state, said control device comprising: - a control module, - a reset module, adapted to reset said control module upon receipt of a reset signal, said reset having a reset time less than a predetermined maximum reset time, and - a monitoring module, commonly referred to as a "watchdog", adapted to detect a malfunction of the computer, said monitoring module being adapted to send the reset signal to said reset module if a malfunction is detected, and wherein the control module comprises a sub-module of at least one temporarily interruptible function, said at least one temporarily interruptible function having a maximum permitted duration of interruption greater than said predetermined maximum reset duration, during which the outputs of said at least one temporarily interruptible function are not provided and in that the control module further comprises a maintained functions sub-module and an interruptible functions sub-module, the outputs of said maintained functions being saved and provided during a reset of the computer and said interruptible functions and temporarily interruptible functions being interrupted during a reset of the computer without time limitation.
A recombinant protein comprising the sequence of amino acids as set forth in Fig. 14A (SEQ ID NO: 13), Fig. 26A (SEQ ID NO: 30), Fig. 29B (SEQ ID NO: 36), or Fig. 39A (SEQ ID NO: 65).
Sputtering target consisting of Ni, W and, optionally, one or more further metal(s) X selected from the group of the refractory metals, Sn, Al and Si in an amount of from 3 to 20 atom%, wherein the target has a normalized peak intensity ratio PIR = I Ni / I W ⋅ A W + A x / A Ni of 0.40 or greater, wherein I Ni is the intensity of the peak of Ni, I W is the intensity of the peak of W, A w is the fraction of W in the target in atom%, A x is the total fraction of the one or more further metals selected from the group of the refractory metals, Sn, Al and Si in the target in atom%, A Ni is the fraction of Ni in the target in atom%, and wherein the intensities of the peaks are determined by X-ray powder diffraction using Cu-K alpha radiation. I Ni is the intensity of the peak of Ni, I W is the intensity of the peak of W, A w is the fraction of W in the target in atom%, A x is the total fraction of the one or more further metals selected from the group of the refractory metals, Sn, Al and Si in the target in atom%, A Ni is the fraction of Ni in the target in atom%, and wherein the intensities of the peaks are determined by X-ray powder diffraction using Cu-K alpha radiation.
A system for removing material from within an eye, the system comprising: a probe having a distal tip insertable into the eye, wherein the tip comprises an aspiration port and an irrigation port; a console coupled with the aspiration port along an aspiration pathway, wherein the console comprises a processor and a pump system for providing a first aspiration flow rate supplied by a first pump and a second aspiration flow rate supplied by a second pump higher than the first pump rate, and an irrigation system for providing a variable irrigation rate, and wherein the processor is configured to automatically switch from the first aspiration flow rate to the second aspiration flow rate and vary the irrigation rate according to the first and second aspiration flow rates, wherein the processor is configured so that ramp-up of the second pump starts before ramp-down of the first pump has been completed. a probe having a distal tip insertable into the eye, wherein the tip comprises an aspiration port and an irrigation port; a console coupled with the aspiration port along an aspiration pathway, wherein the console comprises a processor and a pump system for providing a first aspiration flow rate supplied by a first pump and a second aspiration flow rate supplied by a second pump higher than the first pump rate, and an irrigation system for providing a variable irrigation rate, and wherein the processor is configured to automatically switch from the first aspiration flow rate to the second aspiration flow rate and vary the irrigation rate according to the first and second aspiration flow rates, wherein the processor is configured so that ramp-up of the second pump starts before ramp-down of the first pump has been completed.
A gasket for sealing two mating surfaces of a fuel cell comprising a core layer comprising exfoliated vermiculite and first and second coating layers said core layer interposed between the said first and second coating layers, the said coating layers each comprising glass, glass-ceramic and/or ceramic material.
Timing detection and correction method for a slave device in an IO-Link communication, wherein a master device and the slave device operate on a common basic timing, comprising the steps of: detecting an INIT request at the slave device sent from the master device during communication setup, extracting timing information from the received INIT request by detecting rising and/or falling edges in the INIT request, calculating the actual timing of the master device from the received INIT request, wherein the difference between detected rising and/or falling edges in the INIT request is used to calculate the actual timing of the master device, correcting the initial timing of the slave device to an actual timing based on the calculated actual timing of the master device, characterized in that the initial timing and/or actual timing of the slave device is only corrected if a certain threshold is exceeded. detecting an INIT request at the slave device sent from the master device during communication setup, extracting timing information from the received INIT request by detecting rising and/or falling edges in the INIT request, calculating the actual timing of the master device from the received INIT request, wherein the difference between detected rising and/or falling edges in the INIT request is used to calculate the actual timing of the master device, correcting the initial timing of the slave device to an actual timing based on the calculated actual timing of the master device, characterized in that the initial timing and/or actual timing of the slave device is only corrected if a certain threshold is exceeded.
A vacuum regulator comprising: a manifold having an inlet opening (20, 22), a vacuum source connection, and a bleed orifice; a regulator stem having a metering tip, a stem body, and an adjustment rod, the metering tip being selectively positioned against the bleed orifice; a vacuum adjuster having an adjustment collar and a resilient member, the vacuum adjuster coaxially disposed on a portion of the regulator stem; and an adjustment knob engaging the adjustment rod for concurrent rotational movement therewith. a manifold having an inlet opening (20, 22), a vacuum source connection, and a bleed orifice; a regulator stem having a metering tip, a stem body, and an adjustment rod, the metering tip being selectively positioned against the bleed orifice; a vacuum adjuster having an adjustment collar and a resilient member, the vacuum adjuster coaxially disposed on a portion of the regulator stem; and an adjustment knob engaging the adjustment rod for concurrent rotational movement therewith.
An array (2; 3; 4) of at least two photodiodes including a useful layer (20; 30; 40; 50; 60; 70) consisting of a Cd x Hg 1-x Te type cadmium mercury and tellurium semi-conductor alloy, the useful layer having: - a base (25; 35; 45; 55; 65), located on the side of a lower face (26B; 36B; 46B; 56B) of the useful layer; and - pads (22; 32; 42; 52; 62; 72), located on the side of an upper face (26A; 36A; 46A) of the useful layer; the base forming a common stand for the pads, and each pad corresponding to a photodiode, the useful layer comprising: - a first doped zone (24; 34; 44; 54; 64) having a first N or P doping, extending at least in said base; and - for each pad (22; 32; 42; 52; 62; 72), a second doped zone (23; 33; 43; 53; 63; 73) having a second P or N doping of a different type from that of the first doping, extending at least in an upper region of said pad, on the side of the pad opposite to the base; wherein the first doped zone (24; 34; 44; 54; 64) comprises: - at least one first region (24A; 34A; 44A; 54A; 64A; 74A) having a first doping density, located at least under each of said pads; and - at least one second region (24B; 34B; 44B; 54B; 64B; 74B), located between two neighboring pads, and having a second doping density higher than the first doping density, each second region (24B; 34B; 44B; 54B; 64B; 74B) being separated from the closest second doped zone (23; 33; 43; 53; 63; 73) by at least one portion of the first region (24A; 34A; 44A; 54A; 64A; 74A); characterized in that the width of the second region (24B; 34B; 44B; 54B; 64B; 74B) decreases when the distance to the lower face (26B; 36B; 46B; 56B) of the useful layer decreases. - a base (25; 35; 45; 55; 65), located on the side of a lower face (26B; 36B; 46B; 56B) of the useful layer; and - pads (22; 32; 42; 52; 62; 72), located on the side of an upper face (26A; 36A; 46A) of the useful layer; - a first doped zone (24; 34; 44; 54; 64) having a first N or P doping, extending at least in said base; and - for each pad (22; 32; 42; 52; 62; 72), a second doped zone (23; 33; 43; 53; 63; 73) having a second P or N doping of a different type from that of the first doping, extending at least in an upper region of said pad, on the side of the pad opposite to the base; - at least one first region (24A; 34A; 44A; 54A; 64A; 74A) having a first doping density, located at least under each of said pads; and - at least one second region (24B; 34B; 44B; 54B; 64B; 74B), located between two neighboring pads, and having a second doping density higher than the first doping density, each second region (24B; 34B; 44B; 54B; 64B; 74B) being separated from the closest second doped zone (23; 33; 43; 53; 63; 73) by at least one portion of the first region (24A; 34A; 44A; 54A; 64A; 74A);
An isolated mammalian cell comprising a heterologous alpha2-6 sialyltransferase nucleic acid sequence, optionally wherein the cell is a CHO cell; further comprising a nucleic acid sequence that decreases expression of or silences an alpha2-3sialyltransferase gene; or further comprising means for knock-out of the alpha2-3sialyltransferase gene.
A system comprising: a utility meter; and a load control module for the utility meter, for controlling a high current domestic appliance, wherein a module main cover of the load control module is configured to engage with a meter main cover of the utility meter whereby at least a section of the load control module is adjacent to a side face of the utility meter when the load control module is in an installed state; characterized in that the load control module is configured to share a common fixing location with the utility meter for jointly fixing the load control module and the utility meter to a supporting structure. a utility meter; and a load control module for the utility meter, for controlling a high current domestic appliance, wherein a module main cover of the load control module is configured to engage with a meter main cover of the utility meter whereby at least a section of the load control module is adjacent to a side face of the utility meter when the load control module is in an installed state; characterized in that the load control module is configured to share a common fixing location with the utility meter for jointly fixing the load control module and the utility meter to a supporting structure.
A process for preparing an imidazole compound of formula: in which Rf is a fluoro alkyl or alkoxyl group comprising from 1 to 5 carbon atoms, the process comprising: (a) the reaction of diaminomaleonitrile of formula: with the compound of formula: in which Y represents a chlorine atom or the group OCORf, in the presence of a solvent, to form the salified amide compound of formula (IVa) and/or the corresponding amine of formula (IVb): at a temperature T 1, and (b) dehydration of the salified amide compound of formula (IVa) and/or the corresponding amine (IVb) to form the imidazole compound of formula, at a temperature T 2 above T 1, wherein the second step is performed immediately following the first step without intermediate purification. (a) the reaction of diaminomaleonitrile of formula: with the compound of formula: in which Y represents a chlorine atom or the group OCORf, in the presence of a solvent, to form the salified amide compound of formula (IVa) and/or the corresponding amine of formula (IVb): at a temperature T 1, and (b) dehydration of the salified amide compound of formula (IVa) and/or the corresponding amine (IVb) to form the imidazole compound of formula, at a temperature T 2 above T 1, wherein the second step is performed immediately following the first step without intermediate purification.
A method of classifying and interacting with remotely located equipment coupled to a transmission medium through a media converter, the method comprising: applying from a local position a first direct current signal to a transmission medium extending from the local position to a remote position of the remotely located equipment, the first DC signal being a low voltage and current limited signal having a first voltage; receiving the first DC signal over the transmission medium at the remote position and storing energy from the first DC signal in an energy storage component; using a pulse generating circuit powered by the energy stored from the first DC signal to generate a digital classification signal, on the transmission medium at the remote position, for identifying that the remotely located equipment is configured to operate as a powered device receiving power over the transmission medium; receiving the digital classification signal at the local position and responsively applying from the local position a second DC signal to the transmission medium, the second DC signal having a second voltage, higher than the first voltage; receiving the second DC signal over the transmission medium at the remote position and providing power from the second DC signal to the remotely located equipment. applying from a local position a first direct current signal to a transmission medium extending from the local position to a remote position of the remotely located equipment, the first DC signal being a low voltage and current limited signal having a first voltage; receiving the first DC signal over the transmission medium at the remote position and storing energy from the first DC signal in an energy storage component; using a pulse generating circuit powered by the energy stored from the first DC signal to generate a digital classification signal, on the transmission medium at the remote position, for identifying that the remotely located equipment is configured to operate as a powered device receiving power over the transmission medium; receiving the digital classification signal at the local position and responsively applying from the local position a second DC signal to the transmission medium, the second DC signal having a second voltage, higher than the first voltage; receiving the second DC signal over the transmission medium at the remote position and providing power from the second DC signal to the remotely located equipment.