mhurhangee/patent-ind-claim-en huggingface dataset:
An article, comprising: a glass substrate having opposing major surfaces and having a first average strain-to-failure; a crack mitigating layer disposed on a first major surface forming a first interface; and a film disposed on the crack mitigating layer forming a second interface, the film having a second average strain-to-failure that is lower than the first average strain-to-failure, wherein the article exhibits an effective adhesion energy at one or more of the first interface and the second interface of less than 4 J/m 2 , and further wherein the crack mitigating layer comprises a metal fluoride. a glass substrate having opposing major surfaces and having a first average strain-to-failure; a crack mitigating layer disposed on a first major surface forming a first interface; and a film disposed on the crack mitigating layer forming a second interface, the film having a second average strain-to-failure that is lower than the first average strain-to-failure, wherein the article exhibits an effective adhesion energy at one or more of the first interface and the second interface of less than 4 J/m 2 , and further wherein the crack mitigating layer comprises a metal fluoride.
Photopolymer compositions comprising a) at least one unsaturated glycidyl ether acrylate urethane of the general formula or or mixtures of and in which n is a natural number from 2 to 6, R1 is a mono- or polynuclear organic radical containing aromatic groups and having 4 to 36 carbon atoms, R2 is an olefinically unsaturated radical having 3 to 30 carbon atoms and R is an organic radical derived from aliphatic or aromatic di- or polyisocyanate and having 2 to 30 carbon atoms, b) a binder system c) at least one photoinitiator system d) optionally free radical stabilizers, catalysts and further additives, characterized in that the photoinitiator system consists of a mixture of an ammonium arylborate and one or more dyes, wherein crosslinked binders are used in b), wherein the crosslinked binder is a two-component polyurethane system and the two-component polyurethane system comprises, as the isocyanate component, oligo- and polyisocyanates of aliphatic diisocyanates having an isocyanurate, allophanate, biuret, uretdione or iminooxadiazinedione structure, and the polyol component comprises polyethylene/polypropylene glycols having a polypropylene content of at least 70% and a functionality of 1.9 to 2.5 and/or polyester-polyether-polyester block polyols based on polytetrahydrofurans having a number average molecular weight of 400 to 1400 g/mol and ε-caprolactone, these polyester-polyether-polyester block polyols having a number average molecular weight of 1500 to 4000 g/mol. a) at least one unsaturated glycidyl ether acrylate urethane of the general formula or or mixtures of and in which n is a natural number from 2 to 6, R1 is a mono- or polynuclear organic radical containing aromatic groups and having 4 to 36 carbon atoms, R2 is an olefinically unsaturated radical having 3 to 30 carbon atoms and R is an organic radical derived from aliphatic or aromatic di- or polyisocyanate and having 2 to 30 carbon atoms, n is a natural number from 2 to 6, R1 is a mono- or polynuclear organic radical containing aromatic groups and having 4 to 36 carbon atoms, R2 is an olefinically unsaturated radical having 3 to 30 carbon atoms and R is an organic radical derived from aliphatic or aromatic di- or polyisocyanate and having 2 to 30 carbon atoms, b) a binder system c) at least one photoinitiator system d) optionally free radical stabilizers, catalysts and further additives,
A communication method performed by a first access network device, comprising: determining a timing offset of a first carrier and a second carrier, wherein the timing offset is an offset between timing of downlink communication of the first carrier and timing of uplink communication of the second carrier; and sending , by using a system message or a radio resource control signaling message carried on the first carrier, first indication information to a terminal, wherein the first indication information is used to indicate the timing offset, and the timing offset is used to determine the timing of the second carrier; wherein the timing offset indicates a time difference between a subframe or symbol boundary of the first carrier and a start location of a physical random access channel, PRACH, on the second carrier. determining a timing offset of a first carrier and a second carrier, wherein the timing offset is an offset between timing of downlink communication of the first carrier and timing of uplink communication of the second carrier; and sending , by using a system message or a radio resource control signaling message carried on the first carrier, first indication information to a terminal, wherein the first indication information is used to indicate the timing offset, and the timing offset is used to determine the timing of the second carrier; wherein the timing offset indicates a time difference between a subframe or symbol boundary of the first carrier and a start location of a physical random access channel, PRACH, on the second carrier.
A polyamide multifilament having a tensile strength at 15% elongation of 4.0-6.0 cN/dtex, a strength-elongation product of 10.0 or larger, and a yarn unevenness (U%) of 1.2 or less, wherein the tensile strength at 15% elongation is measured in accordance with JIS L1013-2010, Tensile Strength and Elongation, with a constant-rate extension type tester, a chuck-to-chuck distance of 50 cm, and a stretching speed of 50 cm/min, and is represented by equation as "15% strength", wherein the strength-elongation product is represented by equation , wherein the yarn unevenness (U%) is measured by use of USTER TESTER IV, manufactured by Zellweger Uster AG, under conditions of: sample length, 500 m; test yarn speed V, 100 m/min; twister, type S at 30,000 /min; and 1/2 Inert, 15 % strength = measured tensile strength at 15 % elongation cN / fineness dtex strength − elongation product = strength cN / dtex × elongation % + 100 / 100 wherein the tensile strength at 15% elongation is measured in accordance with JIS L1013-2010, Tensile Strength and Elongation, with a constant-rate extension type tester, a chuck-to-chuck distance of 50 cm, and a stretching speed of 50 cm/min, and is represented by equation as "15% strength", wherein the strength-elongation product is represented by equation , wherein the yarn unevenness (U%) is measured by use of USTER TESTER IV, manufactured by Zellweger Uster AG, under conditions of: sample length, 500 m; test yarn speed V, 100 m/min; twister, type S at 30,000 /min; and 1/2 Inert, 15 % strength = measured tensile strength at 15 % elongation cN / fineness dtex strength − elongation product = strength cN / dtex × elongation % + 100 / 100
A catheter comprising: a tubular inner layer (10d; 10e); a reinforcement layer present inside the inner layer (10d; 10e) or on an outer periphery of the inner layer (10d; 10e), the reinforcement layer having a wire wound therearound so that a gap is present between adjacent portions of the wire ; and an outer layer (40d; 40e) covering the reinforcement layer , wherein: the inner layer (10d; 10e) has an uneven outer peripheral surface (15d; 15e) on which a protruded portion (22d; 22e) is formed in a location of the wire , and a depressed portion (24d; 24e) is formed in a location of the gap , and the outer layer (40d; 40e) has a protrusion part (50d; 50e; 50f) in the depressed portion (24d; 24e) of the inner layer (10d; 10e), the protrusion part (50d; 50e; 50f) entering deeper than the reinforcement layer through the gap and extending in an axis direction of the catheter, characterized in that a length of the protrusion part (50d; 50e; 50f) of the outer layer (40d; 40e) in the axis direction of the catheter is longer than a length of the gap of the reinforcement layer in the axis direction of the catheter. a tubular inner layer (10d; 10e); a reinforcement layer present inside the inner layer (10d; 10e) or on an outer periphery of the inner layer (10d; 10e), the reinforcement layer having a wire wound therearound so that a gap is present between adjacent portions of the wire ; and an outer layer (40d; 40e) covering the reinforcement layer , wherein: the inner layer (10d; 10e) has an uneven outer peripheral surface (15d; 15e) on which a protruded portion (22d; 22e) is formed in a location of the wire , and a depressed portion (24d; 24e) is formed in a location of the gap , and the outer layer (40d; 40e) has a protrusion part (50d; 50e; 50f) in the depressed portion (24d; 24e) of the inner layer (10d; 10e), the protrusion part (50d; 50e; 50f) entering deeper than the reinforcement layer through the gap and extending in an axis direction of the catheter, characterized in that a length of the protrusion part (50d; 50e; 50f) of the outer layer (40d; 40e) in the axis direction of the catheter is longer than a length of the gap of the reinforcement layer in the axis direction of the catheter. the inner layer (10d; 10e) has an uneven outer peripheral surface (15d; 15e) on which a protruded portion (22d; 22e) is formed in a location of the wire , and a depressed portion (24d; 24e) is formed in a location of the gap , and the outer layer (40d; 40e) has a protrusion part (50d; 50e; 50f) in the depressed portion (24d; 24e) of the inner layer (10d; 10e), the protrusion part (50d; 50e; 50f) entering deeper than the reinforcement layer through the gap and extending in an axis direction of the catheter, characterized in that a length of the protrusion part (50d; 50e; 50f) of the outer layer (40d; 40e) in the axis direction of the catheter is longer than a length of the gap of the reinforcement layer in the axis direction of the catheter.
A fault diagnosis method of a control device having an output (OUT) connected to a power conversion device supplying power to a control target, the control device comprising an input unit having an input for receiving an input signal (IN), a cut-off retaining unit controlling the power supply to the control target, a fault diagnosis unit diagnosing a fault in the cut-off retaining unit , and a forcible cut-off unit , wherein the input unit has another input for receiving a first signal (A) from the forcible cut-off unit and outputs a second signal (B) with a cut-off command to the cut-off retaining unit when either of its inputs receives the input signal or first signal with a cut-off command, and the cut-off retaining unit has an input for receiving said second signal (B) with the cut-off command from the input unit and another input for receiving a third signal (E) with a release command, wherein when a power source is applied to the control device , the forcible cut-off unit outputs the first signal (A) with the cut-off command to the input unit for a predetermined period of time (T) so that the input unit is started in a cut-off state where it outputs the second signal (B) with the cut-off command to the cut-off retaining unit regardless of the input signal (IN), and the cut-off state is retained for the predetermined period of time (T), and wherein when the input signal (IN) with the cut-off command is input after the predetermined time (T) has elapsed without a fault having been determined, the cut-off retaining unit retains the cut-off state, and when the third signal (E) with the release command is input, the cut-off retaining unit releases the cut-off state, whereby the output (OUT) of the control device accords to an output of the cut-off retaining unit and switches between outputting a cut-off signal and a permission signal to the power conversion device , whereas in the case of the fault diagnosis unit determining that there is a fault within the predetermined period of time (T), the output (OUT) of the control device is retained in the cut-off state outputting the cut-off signal to the power conversion device until the power source of the control device is cut off, regardless of said input signal (IN) and said third signal (E), even after the predetermined period of time (T) has elapsed.
A method comprising: creating, by a trust domain resource manager, TDRM, executing on a processing device to manage a trust domain, TD, a TD and a randomly-generated encryption key corresponding to the TD , the randomly-generated encryption key identified by a guest key identifier, GKID, in scope of the TD and protected against software access from at least the TDRM; referencing, by the TDRM, a key ownership table, KOT, that includes a state of each host key identifier, HKID, of a list of HKIDs and is protected against software access to obtain at least one HKID corresponding to the randomly-generated encryption key and having the state of unassigned to any TD , the randomly-generated encryption key identified at level of the processing device as the HKID and the HKID utilized by an encryption engine of the processing device to encrypt a TD memory using an encryption key associated with the HKID, wherein the KOT is stored on the processing device; assigning the HKID to the TD by marking the HKID in the KOT as assigned such that the HKID has the state of assigned; and configuring the randomly-generated encryption key on the processing device by associating the randomly-generated encryption key with the HKID , wherein the assigned HKID and the configured randomly-generated encryption key allow the TD memory to be accessible by the TD, wherein configuring the randomly-generated encryption key on the processing device further comprises encrypting the TD memory by the encryption engine using the randomly-generated encryption key associated with the HKID. creating, by a trust domain resource manager, TDRM, executing on a processing device to manage a trust domain, TD, a TD and a randomly-generated encryption key corresponding to the TD , the randomly-generated encryption key identified by a guest key identifier, GKID, in scope of the TD and protected against software access from at least the TDRM; referencing, by the TDRM, a key ownership table, KOT, that includes a state of each host key identifier, HKID, of a list of HKIDs and is protected against software access to obtain at least one HKID corresponding to the randomly-generated encryption key and having the state of unassigned to any TD , the randomly-generated encryption key identified at level of the processing device as the HKID and the HKID utilized by an encryption engine of the processing device to encrypt a TD memory using an encryption key associated with the HKID, wherein the KOT is stored on the processing device; assigning the HKID to the TD by marking the HKID in the KOT as assigned such that the HKID has the state of assigned; and configuring the randomly-generated encryption key on the processing device by associating the randomly-generated encryption key with the HKID , wherein the assigned HKID and the configured randomly-generated encryption key allow the TD memory to be accessible by the TD, wherein configuring the randomly-generated encryption key on the processing device further comprises encrypting the TD memory by the encryption engine using the randomly-generated encryption key associated with the HKID.
A method of screening a continuous-tone image to produce an output image to be printed on a curved surface, wherein the continuous-tone image comprises a plurality of pixels having respective corresponding intended print locations on the curved surface that do not have the same relative geometric relationship as the plurality of pixels; the method comprising the steps of: selecting a first sequence comprising a subset of the plurality of intended print locations, the first sequence being selected based on properties of the plurality of intended print locations; for each intended print location in the first sequence, identifying the corresponding pixel in the continuous-tone image to obtain a second sequence for an error diffusion process comprising the identified corresponding pixels in the continuous-tone image. selecting a first sequence comprising a subset of the plurality of intended print locations, the first sequence being selected based on properties of the plurality of intended print locations; for each intended print location in the first sequence, identifying the corresponding pixel in the continuous-tone image to obtain a second sequence for an error diffusion process comprising the identified corresponding pixels in the continuous-tone image.
Arrangement of a sensor in a holding device , wherein the holding device has a passage opening and wherein the sensor has a process connection which is arranged at least partially within the passage opening , wherein the holding device has an internal taper in a sub-region of the passage opening and the process connection has an external taper in a sub-region, which is constructed in a manner corresponding to the internal taper of the holding device and comes to bear against the same, wherein the external taper has a first section and a second section , characterized in that the first section and the second section are constructed of different materials.
Drainage gutter system (100, 100a-100d) comprising a drainage gutter (1, 1a-1c), at least one bridge-like insert part (8a-8e) and a cover plate (3, 3a-3b), wherein the drainage gutter (1, 1a-1c) features in cross-section a recess with two opposite, vertical support surfaces and two V-shaped tapering inclined support surfaces , wherein a levelling screw with a support head in a thread of the bridge-like insert part (8a-8e) is a height-adjustable support for the cover plate (3, 3a-3b), characterised in that the drainage gutter (1, 1a-1c) features a drainage surface , wherein the drainage surface blunts horizontally in cross-section the V-shaped inclined support surfaces of the drainage gutter (1, 1a-1c) and is inclined towards at least one discharge nozzle , and that the bridge-like insert (8a-8e) is insertable with vertical insert-part support surfaces to the vertical support surfaces of the drainage gutter (1, 1a-1c) and with inclined insert part support surfaces on an upper region of the inclined support surfaces of the drainage gutter (1, 1a-1c).
A compound of Formula I, or a pharmaceutically or veterinarily acceptable salt thereof, or a pharmaceutically or veterinarily acceptable solvate of either entity, for use in the treatment of CDKL5 disorder in a mammal, wherein a compound of Formula I comprises: or a pharmaceutically or veterinarily acceptable salt thereof, or a pharmaceutically or veterinarily acceptable solvate of either entity, wherein: R 1 and R 3 each independently represent, at each occurrence when used herein, H or C 1 to C 5 alkyl; R 2 represents halo; R 4 and R 5 each independently represent H; R 6 represents -C(O)OR 9 ; X represents CH 2 , O or S; R 9 represents H or C 1 to C 5 alkyl; and, m is an integer from 1 to 6 inclusive. R 1 and R 3 each independently represent, at each occurrence when used herein, H or C 1 to C 5 alkyl; R 2 represents halo; R 4 and R 5 each independently represent H; R 6 represents -C(O)OR 9 ; X represents CH 2 , O or S; R 9 represents H or C 1 to C 5 alkyl; and, m is an integer from 1 to 6 inclusive.
An expandable intravertebral implant system comprising: an intravertebral implant comprising: a posterior part , and an expandable anterior part configured for placement in a vertebral body, and comprising a first plate and a second plate, able to form respectively a first and a second bearing surface in the vertebral body; and a pedicle fixation comprising an inner posterior portion and an inner anterior portion defining a hollow portion receiving the posterior part of the intravertebral implant ; characterized in that the posterior part of the intravertebral implant is movable according to at least one degree of freedom relative to the pedicle fixation , and in that the two bearing surfaces are intended to move away from each other according to a predefined expansion plane. an intravertebral implant comprising: a posterior part , and an expandable anterior part configured for placement in a vertebral body, and comprising a first plate and a second plate, able to form respectively a first and a second bearing surface in the vertebral body; and a posterior part , and an expandable anterior part configured for placement in a vertebral body, and comprising a first plate and a second plate, able to form respectively a first and a second bearing surface in the vertebral body; and a pedicle fixation comprising an inner posterior portion and an inner anterior portion defining a hollow portion receiving the posterior part of the intravertebral implant ; characterized in that the posterior part of the intravertebral implant is movable according to at least one degree of freedom relative to the pedicle fixation , and in that the two bearing surfaces are intended to move away from each other according to a predefined expansion plane.
An infrastructure equipment forming part of a mobile communications network configured to transmit signals to and receive signals from one or more communications devices , the infrastructure equipment comprising a receiver configured to receive signals on the uplink from the one or more communications devices via a wireless access interface of the mobile communications network, a transmitter configured to transmit signals on the downlink to the one or more communications devices via the wireless access interface, and a controller configured to control the receiver to receive the signals and to control the transmitter to transmit the signals, wherein the controller is configured in combination with the receiver and the transmitter to measure a frequency error of signals received from one of the communications devices, the frequency error being an amount by which a carrier frequency of the received signals differs from a predetermined frequency, and to transmit, in one or more temporal periods , during which reception of the signals transmitted by and received from the one of the communications devices is paused, a frequency correction signal to the one of the communications devices, the frequency correction signal providing an indication of a correction to compensate for the measured frequency error, characterised in that the infrastructure equipment is configured to measure the frequency error by remodulating an uplink control information signal received from the one of the communications devices, the uplink control information signal being received in communications resources of the wireless access interface allocated for transmission of an uplink data channel by the communications device to the infrastructure equipment and having a duration of less than the duration of said communications resources, and to estimate the frequency error in accordance with the remodulated received signals.
An SiC composite substrate comprising a polycrystalline SiC substrate and a monocrystalline SiC layer thereon, wherein the entirety or a part of the interface of the polycrystalline SiC substrate in abutment with the monocrystalline SiC layer is a mismatch interface (I 12/11 ) that is not lattice-matched, the monocrystalline SiC layer has a smooth front surface and a surface on the side of the interface with the polycrystalline SiC substrate that is more rugged than the front surface, said rugged surface of the monocrystalline SiC layer is composed of oblique surface segments randomly oriented with reference to a direction normal to the front surface of the monocrystalline SiC layer, and the close-packed planes of polycrystalline SiC crystals in the polycrystalline SiC substrate are parallel to said oblique surface segments and correspondingly randomly oriented with reference to a direction normal to the front surface of the monocrystalline SiC layer.