mhurhangee/ep-ind-claims huggingface dataset:
A door guard assembly comprising: a first part that is attachable to a door (a); a second part that is attachable to a door frame (b); an elongate member; and, a slidable plate that comprises a receiving means; wherein the first part and/or the second part and/or the elongate member further comprise(s) a dampening means; and, wherein the elongate member is attached to the second part and, when in use, the elongate member is pivotally attached to the door frame and the slidable plate is connected to the door (a) by means of a fixing means, such that in use, the elongate member is engageable with the receiving means of the plate located on the first part when the plate is slid into an operating position such that the receiving means engages the outer surface of the elongate member as the door (a) is opened from a closed position and the receiving means and elongate member thus limit the opening of the door (a), and wherein the dampening means is capable of absorbing an impact force that is applied to the door (a) whose opening has been limited in this way. a first part that is attachable to a door (a); a second part that is attachable to a door frame (b); an elongate member; and, a slidable plate that comprises a receiving means;
A compound represented by the formula: wherein W, X, Y and Z are each, independently, hydrogen, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, OC 1-6 alkyl, OH, F, Cl, Br, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, NR 31 R 32, NHCOR 33, NHCO 2 R 34, CONR 35 R 36, CH 2 (CH 2) n Y 2, CH 2 O 2 C 1-8 alkyl, CO 2 C 1-8 alkyl or C(=NH)NR 37 R 38; R 31, R 32, R 33, R 34, R 35, R 36, R 37 and R 38 are, independently, hydrogen, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, CH 2 -aryl substituted by one or more substituents OH, Br, Cl, F, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, C 1-6 alkyl, or CH 2 (CH 2) n Y 2 '; each Y 2 is, independently, hydrogen, CF 3, CO 2 R 9, C 1-8 alkyl, NR 10 R 11, NHCOR 12, NHCO 2 R 12, CONR 13 R 14, CH 2 OH, CH 2 OR 8, COCH 2 R 9, each n is, independently, 0, 1, 2 or 3; each R 8, R 9, R 10, R 11, R 12, R 13 and R 14 is, independently, hydrogen, C 1-8 alkyl, CH 2 -aryl wherein the aryl group is substituted by one or more substituents OH, Br, Cl, F, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, C 1-6 alkyl, or CH 2 (CH 2) n Y 2 '; each Y 1 is, independently, hydrogen, OH, Br, Cl, F, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, OR 8, CO 2 R 9, C 1-6 alkyl, NR 10 R 11, NHCOR 12, NHCO 2 R 12, CONR 13 R 14, or CH 2 (CH 2) n Y 2, or two adjacent Y 1 groups form a -O-CH 2 -O- or -O-CH 2 CH 2 -O- group; each Y 2 ' is, independently, hydrogen, CF 3, or C 1-6 alkyl; or a pharmaceutically acceptable salt thereof. W, X, Y and Z are each, independently, hydrogen, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, OC 1-6 alkyl, OH, F, Cl, Br, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, NR 31 R 32, NHCOR 33, NHCO 2 R 34, CONR 35 R 36, CH 2 (CH 2) n Y 2, CH 2 O 2 C 1-8 alkyl, CO 2 C 1-8 alkyl or C(=NH)NR 37 R 38; R 31, R 32, R 33, R 34, R 35, R 36, R 37 and R 38 are, independently, hydrogen, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, CH 2 -aryl substituted by one or more substituents OH, Br, Cl, F, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, C 1-6 alkyl, or CH 2 (CH 2) n Y 2 '; each Y 2 is, independently, hydrogen, CF 3, CO 2 R 9, C 1-8 alkyl, NR 10 R 11, NHCOR 12, NHCO 2 R 12, CONR 13 R 14, CH 2 OH, CH 2 OR 8, COCH 2 R 9, each n is, independently, 0, 1, 2 or 3; each R 8, R 9, R 10, R 11, R 12, R 13 and R 14 is, independently, hydrogen, C 1-8 alkyl, CH 2 -aryl wherein the aryl group is substituted by one or more substituents OH, Br, Cl, F, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, C 1-6 alkyl, or CH 2 (CH 2) n Y 2 '; each Y 1 is, independently, hydrogen, OH, Br, Cl, F, CN, CF 3, NO 2, N 3, SO 2 CH 3, SO 2 CF 3, SO 2 NH 2, OR 8, CO 2 R 9, C 1-6 alkyl, NR 10 R 11, NHCOR 12, NHCO 2 R 12, CONR 13 R 14, or CH 2 (CH 2) n Y 2, or two adjacent Y 1 groups form a -O-CH 2 -O- or -O-CH 2 CH 2 -O- group; each Y 2 ' is, independently, hydrogen, CF 3, or C 1-6 alkyl;
A method of generating, from a first thermal model describing the individual thermal behaviour of an electrical machine and a second thermal model describing the individual thermal behaviour of a device, a composite thermal model describing the thermal behaviour of a system comprising the electrical machine connected to the device, the method comprising: a) connecting at least one geometric entity (15, 17, 19) of one of the first thermal model and the second thermal model to a plurality of geometric entities (15, 17, 19) of the other one of the first thermal model and the second thermal model, each connection comprising at least one of a heat source and a thermal impedance, wherein the first thermal model and the second thermal model connected to each other form an initial composite thermal model, b) comparing measured temperatures with corresponding estimated temperatures obtained from the initial composite thermal model, and in case an estimated temperature deviates with more than a threshold value from a measured temperature, c) adjusting at least one of a thermal impedance and a heat source between a pair of geometric entities connected in step a). a) connecting at least one geometric entity (15, 17, 19) of one of the first thermal model and the second thermal model to a plurality of geometric entities (15, 17, 19) of the other one of the first thermal model and the second thermal model, each connection comprising at least one of a heat source and a thermal impedance, wherein the first thermal model and the second thermal model connected to each other form an initial composite thermal model, b) comparing measured temperatures with corresponding estimated temperatures obtained from the initial composite thermal model, and in case an estimated temperature deviates with more than a threshold value from a measured temperature, c) adjusting at least one of a thermal impedance and a heat source between a pair of geometric entities connected in step a).
An orthogonal separation device for a MIMO radar comprising: a wave detector configured to perform a wave detection process on P pulse waves (R11 to R1M,.., RN1 to RNM) by performing a wave detection process on M pulse waves received by each of N receiving antennas (51 to 56) and to generate P output signals (R' 11 to R' 1M,..,R' N1 to R' NM), wherein the M pulse waves are transmitted at the same time by M transmitting antennas (41 to 44) and thereby the P pulse waves (R11 to R1M,..., RN1 to RNM) arrive at the N receiving antennas (51 to 56), the M pulse waves have phases φ 1 to φ M which have been modulated by using different code arrays of known discrete values, the different code arrays correspond to the M transmitting antennas (41 to 44), the different code arrays are generated by using a random number, which determines the amount of rotation applied to each pulse wave, M is any natural number, N is any natural number, and P = M x N; and a demodulator configured to adjust difference in the phases of the P output signals (R' 11 to R' 1M,..,R' N1 to R' NM) by performing phase modulation by using code arrays configured of codes that are opposite to codes constituting the arrays of the known discrete values and to generate P in-phase signals (r11 to r1M,..., rN1 to rNM, such that the phase of a pulse wave is returned to the original phase before phase modulation at the transmitting antenna a wave detector configured to perform a wave detection process on P pulse waves (R11 to R1M,.., RN1 to RNM) by performing a wave detection process on M pulse waves received by each of N receiving antennas (51 to 56) and to generate P output signals (R' 11 to R' 1M,..,R' N1 to R' NM), wherein the M pulse waves are transmitted at the same time by M transmitting antennas (41 to 44) and thereby the P pulse waves (R11 to R1M,..., RN1 to RNM) arrive at the N receiving antennas (51 to 56), the M pulse waves have phases φ 1 to φ M which have been modulated by using different code arrays of known discrete values, the different code arrays correspond to the M transmitting antennas (41 to 44), the different code arrays are generated by using a random number, which determines the amount of rotation applied to each pulse wave, M is any natural number, N is any natural number, and P = M x N; and a demodulator configured to adjust difference in the phases of the P output signals (R' 11 to R' 1M,..,R' N1 to R' NM) by performing phase modulation by using code arrays configured of codes that are opposite to codes constituting the arrays of the known discrete values and to generate P in-phase signals (r11 to r1M,..., rN1 to rNM, such that the phase of a pulse wave is returned to the original phase before phase modulation at the transmitting antenna
A method of encoding an audio signal, comprising: receiving a multi-channel audio signal; generating a first downmix signal from the multi-channel audio signal; generating a spatial information signal from the multi-channel audio signal in order to upmix the first downmix signal; inputting a second downmix signal; generating an arbitrary downmix gain, ADG, by comparison between the first downmix signal and the second downmix signal, wherein the ADG is information to reduce a difference of the first downmix signal from the second downmix signal; applying the ADG to the first downmix signal or second downmix signal to generate ADG-applied downmix signal; and multiplexing the ADG-applied downmix signal and the spatial information signal to generate a bitstream. receiving a multi-channel audio signal; generating a first downmix signal from the multi-channel audio signal; generating a spatial information signal from the multi-channel audio signal in order to upmix the first downmix signal; inputting a second downmix signal; generating an arbitrary downmix gain, ADG, by comparison between the first downmix signal and the second downmix signal, wherein the ADG is information to reduce a difference of the first downmix signal from the second downmix signal; applying the ADG to the first downmix signal or second downmix signal to generate ADG-applied downmix signal; and multiplexing the ADG-applied downmix signal and the spatial information signal to generate a bitstream.
A radio frequency identification, RFID, transponder, comprising a modulator and a modulator controller, wherein: the modulator is configured to generate a modulated signal to be transmitted to an external RFID reader; characterized in that the modulator controller is configured to control a duty cycle of the modulator in dependence on an available amount of power available to the RFID transponder. the modulator is configured to generate a modulated signal to be transmitted to an external RFID reader; characterized in that the modulator controller is configured to control a duty cycle of the modulator in dependence on an available amount of power available to the RFID transponder.
A method of protocol stack optimization for data communication between a machine-type communication, MTC, device and a Serving GPRS Support Node, SGSN,, the MTC device and the SGSN communicating through a protocol stack that comprises one or more protocol layers, said method comprising: constructing a MTC message at the MTC device for delivery to a target MTC application in a target network node using an Internet Protocol packet, where the MTC device has a protocol stack without User Datagram Protocol /IP layers, and transmitting the MTC message from the MTC device to the SGSN; wherein the MTC message does not include UDP/IP headers and wherein a pre-specified data field in the MTC message is set to a value that indicates to the SGSN that a UDP type transport layer header and an IP header must be added to the MTC message before delivery to the target MTC application. constructing a MTC message at the MTC device for delivery to a target MTC application in a target network node using an Internet Protocol packet, where the MTC device has a protocol stack without User Datagram Protocol /IP layers, and transmitting the MTC message from the MTC device to the SGSN;
Mammalian amniotic exosomes derived from allogeneic mammalian amnion epithelial cells derived from a donor mammal of the same species for use in a method of treating a fibrotic disease, condition or disorder of the lung, liver, heart, kidney or pancreas in a mammalian subject, comprising the systemic or local administration of said mammalian amniotic exosomes, wherein the exosomes are derived from term or preterm amnion epithelial cells or from a bank of immortalized amnion epithelial cells.
Method for producing a dental restoration comprising a lithium silicate glass ceramic, wherein a) an amorphous glass with the composition 50 to 75 wt-% SiO 2, 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2, 0 to 8 wt-% Al 2 O 3, 0 to 8 wt-% K 2 O, and 0 to 15 wt-% additives is provided as an ingot, b) the ingot is transformed to a dental restoration by at least one transformation process wherein thermal energy is conveyed to the ingot with temperatures from 850 °C to 1100°C over a period of 10 to 120 min, wherein during the at least one transformation process at least a partial crystallisation occurs due to increased temperatures, wherein the transformation process is a lost wax process. a) an amorphous glass with the composition 50 to 75 wt-% SiO 2, 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2, 0 to 8 wt-% Al 2 O 3, 0 to 8 wt-% K 2 O, and 0 to 15 wt-% additives is provided as an ingot, 17 to 20 wt-% Li 2 O, 8 to 20 wt-% of ZrO 2, 0 to 8 wt-% Al 2 O 3, 0 to 8 wt-% K 2 O, and 0 to 15 wt-% additives b) the ingot is transformed to a dental restoration by at least one transformation process wherein thermal energy is conveyed to the ingot with temperatures from 850 °C to 1100°C over a period of 10 to 120 min, wherein during the at least one transformation process at least a partial crystallisation occurs due to increased temperatures, wherein the transformation process is a lost wax process.
Luminaire insert having a carrier element on which an illuminant module and a plurality of reflector modules of the luminaire insert are arranged, the illuminant module having at least one illuminant, the reflector modules being fastened to the carrier element and exerting a contact force on the illuminant module in the direction of the carrier element.
Apparatus for production of a control signal for a demand side electric power supply management system, comprising: means to accept set point; measurement means to measure power flow into a supply network; means to convert information from the measurement means and the set point into a control signal for transmission over the network wherein the control signal comprises information relating to the measured power flow and the set point and wherein the frequency of the control signal is indicative of the power available to the network; means to inductively couple the control signal to the supply network. means to accept set point; measurement means to measure power flow into a supply network; means to convert information from the measurement means and the set point into a control signal for transmission over the network wherein the control signal comprises information relating to the measured power flow and the set point and wherein the frequency of the control signal is indicative of the power available to the network; means to inductively couple the control signal to the supply network.
Device for mechanically coupling an oscillatingly mounted body to a stationary body, with a damping system coupling both bodies (1, 2) and having variably adjustable damping properties, the damping system having two force paths (K1, K2) arranged parallel to one another, which each couple both bodies (1, 2) mechanically to one another via a common force introduction point, characterized in that the first force path consists of a damping element with constant damping properties and a variably adjustable stiffness coupled in series with the damping element, that the second force path consists of an adjustable stiffness (9"), the damping characteristic of the damping element and the adjustable stiffnesses (9', 9") are matched to one another and designed in such a way that a damping characteristic assigned to the device for mechanical coupling can be varied exclusively by the adjustable stiffnesses (9', 9"), and that the variably adjustable stiffness arranged along the first and second force path is realized using a purely mechanical coupling system.
An aqueous composition for reducing the corrosive removal of material in the pickling of metallic surfaces comprising bare and/or galvanized steel, wherein the composition comprises a mixture of a compound of the formula I R 1 O-(CH 2) x -C≡C-(CH 2) y -OR 2, in which R 1 and R 2 are both H and a compound of the formula I in which R 1 and R 2 are each, independently of one another, an HO-(CH 2) w - group with w ≥ 2, where x and y are each, independently of one another, from 1 to 4 in each of the two compounds of the formula I.
An ophthalmic surgical instrument for severing a lens of an eye, comprising: an elongated shaft (20, 200) having a distal end portion; a wire (30, 300, 350) extending along the elongated shaft (20, 200) and having a looped segment (33, 330) disposed adjacent the distal end portion and being configured to move between a contracted configuration and a dilated configuration, in which the looped segment (33, 330) assumes a diameter approximating the diameter and shape of a lens of an eye, the looped segment (33, 330) having a bottom portion configured to engage and sever a bottom portion of the lens upon moving toward the contracted configuration when the looped segment (33, 330) is placed around the lens, a light-conducting element (50, 500, 550) extending along at least a portion of a length of the looped segment (33, 330), and a light source (60, 600, 660) in communication with the light-conducting element (50, 500, 550), such that light from the light source (60, 600, 660) travels through the light-conducting element (50, 500, 550) and illuminates at least a portion of the length of the looped segment (33, 330), characterized in that the light-conducting element (50, 500, 550) is a tube that surrounds the wire (30, 300, 350). an elongated shaft (20, 200) having a distal end portion; a wire (30, 300, 350) extending along the elongated shaft (20, 200) and having a looped segment (33, 330) disposed adjacent the distal end portion and being configured to move between a contracted configuration and a dilated configuration, in which the looped segment (33, 330) assumes a diameter approximating the diameter and shape of a lens of an eye, the looped segment (33, 330) having a bottom portion configured to engage and sever a bottom portion of the lens upon moving toward the contracted configuration when the looped segment (33, 330) is placed around the lens, a light-conducting element (50, 500, 550) extending along at least a portion of a length of the looped segment (33, 330), and a light source (60, 600, 660) in communication with the light-conducting element (50, 500, 550), such that light from the light source (60, 600, 660) travels through the light-conducting element (50, 500, 550) and illuminates at least a portion of the length of the looped segment (33, 330), characterized in that the light-conducting element (50, 500, 550) is a tube that surrounds the wire (30, 300, 350).
A root canal filling material, comprising: a matrix comprising a heat flowable Gutta Percha material; and heat conductive particles of submicron size dispersed in the heat flowable material of the matrix, which have a heat conductivity higher than the heat conductivity of the heat flowable material, wherein the particles are nanoparticles, wherein the size of the nanoparticles is 100 nm or less, and wherein the nanoparticles are 1 to 5 % weight of the material, and wherein sub-micron scale particles of a particle size within the range of 500 nm to 1 micrometer are added. a matrix comprising a heat flowable Gutta Percha material; and heat conductive particles of submicron size dispersed in the heat flowable material of the matrix, which have a heat conductivity higher than the heat conductivity of the heat flowable material, wherein the particles are nanoparticles, wherein the size of the nanoparticles is 100 nm or less, and wherein the nanoparticles are 1 to 5 % weight of the material, and wherein sub-micron scale particles of a particle size within the range of 500 nm to 1 micrometer are added.
An intravascular pressure measuring catheter having a mounting base comprising: a distal sleeve having a guidewire lumen for slidably receiving a separate medical guidewire; a proximal portion coupled to the distal sleeve; and a pressure sensor which is provided on the mounting base and comprises a sensing portion and a lead portion, wherein the sensing portion has a sensing area for sensing pressure, and the lead portion transmits the blood pressure signal generated by the sensing area through a conducting wire, wherein the mounting base is fixed to the outer surface of the distal sleeve, wherein the mounting base forms side walls on both sides along the length direction of the distal sleeve, and wherein both side walls constitute respectively a mounting groove and a wiring groove communicating with each other, and wherein the pressure sensor is arranged inside the mounting groove, and the conducting wire is arranged along the wiring groove, and wherein the sensing portion of the pressure sensor and the mounting base have a gap therebetween, and wherein the Young's modulus of the mounting base is greater than the Young's modulus of the distal sleeve. a distal sleeve having a guidewire lumen for slidably receiving a separate medical guidewire; a proximal portion coupled to the distal sleeve; and a pressure sensor which is provided on the mounting base and comprises a sensing portion and a lead portion, wherein the sensing portion has a sensing area for sensing pressure, and the lead portion transmits the blood pressure signal generated by the sensing area through a conducting wire, wherein the mounting base is fixed to the outer surface of the distal sleeve, wherein the mounting base forms side walls on both sides along the length direction of the distal sleeve, and wherein both side walls constitute respectively a mounting groove and a wiring groove communicating with each other, and wherein the pressure sensor is arranged inside the mounting groove, and the conducting wire is arranged along the wiring groove, and wherein the sensing portion of the pressure sensor and the mounting base have a gap therebetween, and wherein the Young's modulus of the mounting base is greater than the Young's modulus of the distal sleeve.
A fall protection arrangement for a load area of a vehicle structure, comprising at least two support columns which extend vertically in a mounted position and which are pivotable between a first and a second position by way of joints around vertical pivot axes arranged at least portion-wise outside the support columns, characterised in that the at least two support columns each have two portions (42, 43) connected by way of an offset configuration and the vertical pivot axis respectively extends through one of the two portions (42, 43) and in displaced parallel relationship with the other of the two portions (42, 43).