mhurhangee/ep-ind-claims huggingface dataset:
Backrest (2; 57; 58) for supporting the back of a seated person, the backrest comprising mounting means for mounting the backrest on a frame (81, 82) of a seating device, for instance a (wheel)chair; wherein the backrest (2; 57; 58) comprises at least two back parts: - a first back part (5; 45; 59) for supporting at least a part of the back of the person at a determined angle, which first back part has a stiffness such that during use the part of the back shapes itself substantially to the first back part, and wherein the backrest comprises adjusting means for adjusting the angle and/or the position of the first back part relative to the frame; and - a second back part (4; 46-48; 84) which has a flexibility such that during use the second back part shapes itself substantially continuously to another part of the back of the person. characterized in that the second back part (4; 46-48; 84) is adjustable from a first stage, in which the second back part has the flexibility such that the second back part can be shaped to another part of the back of the person, to a second stage in which the second back part is fixed in its setting shaped to the other part of the back. - a first back part (5; 45; 59) for supporting at least a part of the back of the person at a determined angle, which first back part has a stiffness such that during use the part of the back shapes itself substantially to the first back part, and wherein the backrest comprises adjusting means for adjusting the angle and/or the position of the first back part relative to the frame; and - a second back part (4; 46-48; 84) which has a flexibility such that during use the second back part shapes itself substantially continuously to another part of the back of the person.
An oscillator comprising: first, second, and third PMOS transistors (MP1, MP2, MP3) having a common gate connection; a first switching transistor (MP1A) coupled in parallel to the first PMOS transistor such that the first switching transistor (MP1A) and the first PMOS transistor form a first bias transistor; a second switching transistor (MP2A) coupled in parallel to the second PMOS transistor such that the second switching transistor (MP2A) and the second PMOS transistor form a second bias transistor; and first, second, and third NMOS transistors (MN1, MN2, MN3) coupled to the first, second, and third PMOS transistors (MP1, MP2, MP3), respectively, for biasing, wherein the third NMOS transistor has two terminals for receiving an external crystal, wherein the first and second switching transistors (MP1A, MP2A) are switched between a first operational mode and a second operational mode by connecting and disconnecting the gate, respectively, of the first switching transistor (MP1A) and the second switching transistor (MP2A) to a bias voltage of the common gate connection, and wherein the first and second NMOS transistors (MN1, MN2) are coupled together through a low pass filter (R1, C1). first, second, and third PMOS transistors (MP1, MP2, MP3) having a common gate connection; a first switching transistor (MP1A) coupled in parallel to the first PMOS transistor such that the first switching transistor (MP1A) and the first PMOS transistor form a first bias transistor; a second switching transistor (MP2A) coupled in parallel to the second PMOS transistor such that the second switching transistor (MP2A) and the second PMOS transistor form a second bias transistor; and first, second, and third NMOS transistors (MN1, MN2, MN3) coupled to the first, second, and third PMOS transistors (MP1, MP2, MP3), respectively, for biasing, wherein the third NMOS transistor has two terminals for receiving an external crystal, wherein the first and second switching transistors (MP1A, MP2A) are switched between a first operational mode and a second operational mode by connecting and disconnecting the gate, respectively, of the first switching transistor (MP1A) and the second switching transistor (MP2A) to a bias voltage of the common gate connection, and wherein the first and second NMOS transistors (MN1, MN2) are coupled together through a low pass filter (R1, C1).
A method comprising: constructing a standard dynamic range, SDR, cumulative density function, CDF, based on an SDR histogram generated from a distribution of SDR codewords in one or more SDR images; transmitting the one or more SDR images along with backward reshaping metadata to one or more recipient devices; characterized by constructing a high dynamic range, HDR, CDF based on an HDR histogram generated from a distribution of HDR codewords in one or more HDR images that correspond to the one or more SDR images; generating a histogram transfer function based on the SDR CDF and the HDR CDF; wherein the backward reshaping metadata is generated at least in part on the histogram transfer function. constructing a standard dynamic range, SDR, cumulative density function, CDF, based on an SDR histogram generated from a distribution of SDR codewords in one or more SDR images; transmitting the one or more SDR images along with backward reshaping metadata to one or more recipient devices; characterized by constructing a high dynamic range, HDR, CDF based on an HDR histogram generated from a distribution of HDR codewords in one or more HDR images that correspond to the one or more SDR images; generating a histogram transfer function based on the SDR CDF and the HDR CDF; wherein the backward reshaping metadata is generated at least in part on the histogram transfer function.
A method of molding a thermosetting resin, comprising, during a first stage: filling a first mold with a thermosetting resin while causing the temperature of the resin to vary in compliance with a first temperature program, without exceeding a glass transition temperature Tg of the resin; and after the first mold has been filled, putting the resin under pressure while causing the temperature of the resin to vary in compliance with a second temperature program, without exceeding the glass transition temperature Tg of the resin, and detecting a drop in the pressure exerted by the resin on the mold by identifying the instant t1 when the pressure presents a break of slope; and in a second stage: filling a second mold with the thermosetting resin, while causing the temperature of the resin to vary in compliance with the first temperature program; and after the second mold has been filled, putting the resin under pressure while causing the temperature of the resin to vary in compliance with the second temperature program up to an instant t2 substantially equal to t1, and then from the instant t2, increasing the temperature of the resin so as to exceed the glass transition temperature Tg of the resin. filling a first mold with a thermosetting resin while causing the temperature of the resin to vary in compliance with a first temperature program, without exceeding a glass transition temperature Tg of the resin; and after the first mold has been filled, putting the resin under pressure while causing the temperature of the resin to vary in compliance with a second temperature program, without exceeding the glass transition temperature Tg of the resin, and detecting a drop in the pressure exerted by the resin on the mold by identifying the instant t1 when the pressure presents a break of slope; and in a second stage: filling a second mold with the thermosetting resin, while causing the temperature of the resin to vary in compliance with the first temperature program; and after the second mold has been filled, putting the resin under pressure while causing the temperature of the resin to vary in compliance with the second temperature program up to an instant t2 substantially equal to t1, and then from the instant t2, increasing the temperature of the resin so as to exceed the glass transition temperature Tg of the resin. filling a second mold with the thermosetting resin, while causing the temperature of the resin to vary in compliance with the first temperature program; and after the second mold has been filled, putting the resin under pressure while causing the temperature of the resin to vary in compliance with the second temperature program up to an instant t2 substantially equal to t1, and then from the instant t2, increasing the temperature of the resin so as to exceed the glass transition temperature Tg of the resin.
An electronic fall arrest safety system for the safety of an operator when performing activities carried out in a position raised above the ground, said safety system being anchorable to an anchoring point, said anchoring point being a machine intended to lift and move materials, and comprising: - a safety device, which may be fastened to the anchoring point, provided with a reeling drum on which a safety cable is wound, ending with a hooking member which is connectable to an operator's harness, and with an electronic drive lock, characterised by further comprising: - an electronic inhibitor lock for the anchoring point, which is connectable to the controls of the machine to inhibit the movement thereof and allow the operator to safely operate; - a control provided with password input means and with a transmitter communicating both with the electronic drive lock and with the electronic inhibitor lock; wherein both electronic locks (25, 35) are associated with a single electronic key for simultaneously activating both said electronic locks (25, 35). - a safety device, which may be fastened to the anchoring point, provided with a reeling drum on which a safety cable is wound, ending with a hooking member which is connectable to an operator's harness, and with an electronic drive lock, characterised by further comprising: - an electronic inhibitor lock for the anchoring point, which is connectable to the controls of the machine to inhibit the movement thereof and allow the operator to safely operate; - a control provided with password input means and with a transmitter communicating both with the electronic drive lock and with the electronic inhibitor lock;
A tire comprising a tread portion divided, by a plurality of circumferential main grooves (4A, 4B, 5) including a pair of shoulder main grooves (4A, 4B), into a plurality of land portions (6A, 6B, 7A, 7B) including a pair of shoulder land portions (6A, 6B) at an outer side in a tire axial direction with respect to the respective shoulder main grooves (4A, 4B), wherein a first shoulder land portion that is one of the pair of shoulder land portions (6A, 6B) has: a plurality of first shoulder lateral grooves each extending inward in the tire axial direction from the outer side in the tire axial direction with respect to a ground-contact edge and having an inner end portion that terminates within the first shoulder land portion without being connected to the shoulder main groove via a sipe; and first shoulder sipes each provided between the first shoulder lateral grooves that are adjacent to each other in a tire circumferential direction, characterized in that each first shoulder lateral groove has a two-stage structure having a shallow groove portion located at an inner side in the tire axial direction and a deep groove portion that is located at the outer side in the tire axial direction and that is connected to the shallow groove portion via a step portion, wherein the groove depth of the shallow groove portion gradually increases from the inner end portion toward the outer side in the tire axial direction, and has a maximum depth at a point of intersection (Pa) of the shallow groove portion and the step portion, wherein further the groove depth of the deep groove portion gradually decreases from a point of intersection (Pc) of the deep groove portion and the step portion toward the outer side in the tire axial direction, and has a maximum depth (Hj 1) at the point of intersection (Pc), and wherein the maximum depth of the shallow groove portion of the first shoulder lateral groove is 55 to 65% of the maximum depth (Hj 1) of the deep groove portion of the first shoulder lateral groove. a plurality of first shoulder lateral grooves each extending inward in the tire axial direction from the outer side in the tire axial direction with respect to a ground-contact edge and having an inner end portion that terminates within the first shoulder land portion without being connected to the shoulder main groove via a sipe; and first shoulder sipes each provided between the first shoulder lateral grooves that are adjacent to each other in a tire circumferential direction, characterized in that each first shoulder lateral groove has a two-stage structure having a shallow groove portion located at an inner side in the tire axial direction and a deep groove portion that is located at the outer side in the tire axial direction and that is connected to the shallow groove portion via a step portion,
A transcranial magnetic stimulation diagnostic and treatment device, comprising a horizontal translation platform, a base, an articulated robot, a TMS coil, a 3D camera, and a computer, wherein the base is provided with a controller, and the controller is respectively electrically connected to the horizontal translation platform, the articulated robot, the 3D camera, and the computer; the articulated robot and the horizontal translation platform are both provided above the base; a clamping part of the articulated robot clamps the TMS coil; the 3D camera is configured to acquire 3D image data of the head of a patient; the computer is configured process the 3D image data to construct a three-dimensional model of the head of the patient and acquiring positions of the head of the patient and the TMS coil; the controller is configured to control the articulated robot to move the TMS coil to the position of the head of the patient, wherein one end of the horizontal translation platform is provided with a head rest, the head rest comprises an upper rest cover, a bottom rest cover, and a rest installing support, the rest installing support is installed on the horizontal translation platform, the bottom rest cover is installed on the rest installing support, the upper rest cover is installed on the bottom rest cover, and both the upper rest cover and the bottom rest cover (71, 72) are of a concave structure.
A multi-spoke-type ultrasonic motor, comprising: a rotating shaft, a fastening sleeve, a spring, a rotor, a stator, a fastening screw, and piezoelectric ceramics, wherein the rotor, the stator, the spring, and the fastening sleeve are sequentially connected by using the rotating shaft; the fastening screw is located in the middle of a side surface of the fastening sleeve, and the fastening screw is adjusted to make the fastening sleeve slide on the rotating shaft, to adjust a pre-pressure of the spring; the spring is between the fastening sleeve and the rotor, and is pressed on a surface of the rotor; the rotor is hemispheric or tapered; the stator is an annular metal sheet internally provided with spoke-like teeth, both an upper surface and a lower surface of the stator are provided with identical spoke-like teeth for contacting the rotor, and the rotor and the spoke-like teeth of the stator are in close contact under the effect of the pre-pressure of the spring; and the piezoelectric ceramics are flat annular sheets, and an upper sheet and a lower sheet are separately affixed to an annular surface of the stator; wherein there is an angle θ between the internal spoke-like teeth of the stator and a stator ring surface on which a tooth root is located, and the internal spoke-like teeth of the stator are rotationally symmetrical about the center of the stator ring; characterized in that: there is an angle between the internal spoke-like teeth and a plane in which the stator is located, and in that the angle α is defined by the internal spoke-like teeth of the stator being bent upward and downward separately from the tooth root and away from a plane in which a ring of the stator is located.
A method of a user equipment, UE, for a user equipment, UE,-to-network relay selection in a device-to-device communication system, the method comprising: receiving, by the UE from UE-to-network relays, relay discovery messages, each of the relay discovery messages including user information identifier, ID, of a corresponding UE-to-network relay and a service code; identifying that a criteria is fulfilled, in case that the service code included in the relay discovery message is same as a service code configured for a connectivity service in which the UE is interested, and the user information ID included in the relay discovery message is same as a user information ID configured for the connectivity service; measuring, by the UE, radio qualities between the UE and the UE-to-network relays based on the identification; and selecting, by the UE, one of the UE-to-network relays as a UE-to-network for the UE based on the measured radio qualities, wherein each of the radio qualities is a linear average over power contributions of resource elements carrying reference signals. receiving, by the UE from UE-to-network relays, relay discovery messages, each of the relay discovery messages including user information identifier, ID, of a corresponding UE-to-network relay and a service code; identifying that a criteria is fulfilled, in case that the service code included in the relay discovery message is same as a service code configured for a connectivity service in which the UE is interested, and the user information ID included in the relay discovery message is same as a user information ID configured for the connectivity service; measuring, by the UE, radio qualities between the UE and the UE-to-network relays based on the identification; and selecting, by the UE, one of the UE-to-network relays as a UE-to-network for the UE based on the measured radio qualities, wherein each of the radio qualities is a linear average over power contributions of resource elements carrying reference signals.
A compound of formula I or a pharmaceutically acceptable salt thereof, wherein R 1 is 1) -C 1-4 alkyl, unsubstituted or substituted with R 1', wherein R 1' is independently selected from halogen and OC 1-4 alkyl, 2) 6-membered unsaturated heterocycle having 1 N atom, wherein the heterocycle is unsubstituted or substituted on any ring atom with C 1-4 alkyl, 3) 6-membered unsaturated carbocycle unsubstituted or substituted on any ring atom with C 1-4 alkyl, or, 4) -C C 1-4 alkyl; R 2 is hydrogen or halogen; -X-Z is 1) -C 1-4 alkylene-Z, wherein the alkylene is unsubstituted or substituted with OH, =CH 2, -C 1-4 alkyl, - C 1-4 alkylene OH, or -OC 1-4 alkyl, 2) 3) -C 1-4 alkenylene-Z, 4) -NR 3 C 1-4 alkylene-Z, 5) -OC 1-4 alkylene-Z, 6) -CH 2 NR 3 C 1-4 alkylene-Z, 7) -CH 2 C C 1-4 alkylene-Z, or 8) -CH 2 OC 1-4 alkylene-Z; Z-Y is O-Y, C 1-4 alkylene-Y, NR 3 -Y or NH-Y is NH-CH(C 6 H 3 R 4 R 5)C 1-4 alkylene-, where C 1-4 alkylene is unsubstituted or independently mono- or di-substituted with R 6; R 3 is independently hydrogen or C 1-4 alkyl; R 4 is hydrogen or halogen; R 5 is hydrogen or -OC 1-4 alkyl; and R 6 is OH or C 1-4 alkyl wherein alkyl is unsubstituted or substituted with OH. R 1 is 1) -C 1-4 alkyl, unsubstituted or substituted with R 1', wherein R 1' is independently selected from halogen and OC 1-4 alkyl, 2) 6-membered unsaturated heterocycle having 1 N atom, wherein the heterocycle is unsubstituted or substituted on any ring atom with C 1-4 alkyl, 3) 6-membered unsaturated carbocycle unsubstituted or substituted on any ring atom with C 1-4 alkyl, or, 4) -C C 1-4 alkyl; 1) -C 1-4 alkyl, unsubstituted or substituted with R 1', wherein R 1' is independently selected from halogen and OC 1-4 alkyl, 2) 6-membered unsaturated heterocycle having 1 N atom, wherein the heterocycle is unsubstituted or substituted on any ring atom with C 1-4 alkyl, 3) 6-membered unsaturated carbocycle unsubstituted or substituted on any ring atom with C 1-4 alkyl, or, 4) -C C 1-4 alkyl; R 2 is hydrogen or halogen; -X-Z is 1) -C 1-4 alkylene-Z, wherein the alkylene is unsubstituted or substituted with OH, =CH 2, -C 1-4 alkyl, - C 1-4 alkylene OH, or -OC 1-4 alkyl, 2) 3) -C 1-4 alkenylene-Z, 4) -NR 3 C 1-4 alkylene-Z, 5) -OC 1-4 alkylene-Z, 6) -CH 2 NR 3 C 1-4 alkylene-Z, 7) -CH 2 C C 1-4 alkylene-Z, or 8) -CH 2 OC 1-4 alkylene-Z; 1) -C 1-4 alkylene-Z, wherein the alkylene is unsubstituted or substituted with OH, =CH 2, -C 1-4 alkyl, - C 1-4 alkylene OH, or -OC 1-4 alkyl, 2) 3) -C 1-4 alkenylene-Z, 4) -NR 3 C 1-4 alkylene-Z, 5) -OC 1-4 alkylene-Z, 6) -CH 2 NR 3 C 1-4 alkylene-Z, 7) -CH 2 C C 1-4 alkylene-Z, or 8) -CH 2 OC 1-4 alkylene-Z; Z-Y is O-Y, C 1-4 alkylene-Y, NR 3 -Y or NH-Y is NH-CH(C 6 H 3 R 4 R 5)C 1-4 alkylene-, where C 1-4 alkylene is unsubstituted or independently mono- or di-substituted with R 6; R 3 is independently hydrogen or C 1-4 alkyl; R 4 is hydrogen or halogen; R 5 is hydrogen or -OC 1-4 alkyl; and R 6 is OH or C 1-4 alkyl wherein alkyl is unsubstituted or substituted with OH.
A method comprising: receiving a data signal modulating a first navigation signal received at a reference location transmitted according to a first format by a first space vehicle SV; determining timing of transitions in an alternating viterbi encoded signal modulating a second navigation signal received at said reference location transmitted according to a second format different from said first format by a second SV; and performing pre-detection integration over a portion of said first navigation signal between bit edges of said data signal to acquire said first navigation signal comprising associating a timing of a bit edge of said data signal with said timing of said transitions based, at least in part, on an estimated difference between a first range to said first SV from said reference location and a second range to a second SV from said reference location, bounded by an uncertainty based on the uncertainty in the timing of the clock at the receiver, location of the SVs relative to the reference location, and uncertainty in the reference location to determine timing of said bit edge of said data signal, wherein the first and second navigation signals are synchronized. receiving a data signal modulating a first navigation signal received at a reference location transmitted according to a first format by a first space vehicle SV; determining timing of transitions in an alternating viterbi encoded signal modulating a second navigation signal received at said reference location transmitted according to a second format different from said first format by a second SV; and performing pre-detection integration over a portion of said first navigation signal between bit edges of said data signal to acquire said first navigation signal comprising associating a timing of a bit edge of said data signal with said timing of said transitions based, at least in part, on an estimated difference between a first range to said first SV from said reference location and a second range to a second SV from said reference location, bounded by an uncertainty based on the uncertainty in the timing of the clock at the receiver, location of the SVs relative to the reference location, and uncertainty in the reference location to determine timing of said bit edge of said data signal, wherein the first and second navigation signals are synchronized.
Electrochemical cell gas sensor, comprising an electrochemical cell including an electrolyte therein in electrical contact with electrochemical cell electrodes, said electrolyte consisting of an ionic liquid, wherein the ionic liquid is a salt or a mixture of salts having a melting point such that it is liquid at 30°C or below and including an imidazolium or pyridinium cation in a mixture together with aluminum halides or other salts that increase the conductivity of the electrolytic medium.