mhurhangee/patent-ind-claim-en huggingface dataset:
An adhesive article comprising: a substrate layer , a first adhesive layer , a first foam layer and a second foam layer , wherein the first foam layer is disposed between the first adhesive layer and the substrate , the second foam layer is disposed along an opposite face of the substrate , the first adhesive layer defines an outer face and the second foam layer defines an outer face , wherein the first adhesive layer consists of a convertible pressure sensitive adhesive which can be converted to a structural adhesive, and wherein the convertible adhesive can be converted to a structural adhesive upon heating or upon exposure to radiation. a substrate layer , a first adhesive layer , a first foam layer and a second foam layer , wherein the first foam layer is disposed between the first adhesive layer and the substrate , the second foam layer is disposed along an opposite face of the substrate , the first adhesive layer defines an outer face and the second foam layer defines an outer face , wherein the first adhesive layer consists of a convertible pressure sensitive adhesive which can be converted to a structural adhesive, and wherein the convertible adhesive can be converted to a structural adhesive upon heating or upon exposure to radiation.
A method for preparing a plurality of granules by mixer-granulation of a composition, wherein the composition comprises a biological active and 6-30% w/w of a non-volatile liquid having a vapor pressure of less than 1 kPa at 25°C, a melting point of 25°C or lower, and an elastic parameter, η', lower than 0.1 kPa, when measured in a cone-and-plate rheometer using a sinusoidal frequency, ω, of 1 Hz at 25°C; wherein mixer-granulation comprises progressive agglomeration of fine particles into larger granules; and wherein the biological active is an enzyme, a bacterial spore, a dehydrated yeast cell, or a dehydrated bacterial cell.
A pharmaceutical composition wherein the composition comprises: (a) 55 - 65% guaifenesin; (b) 1 - 5% dextromethorphan or a pharmaceutically acceptable salt thereof; (c) 5 - 15% naproxen or a pharmaceutically acceptable salt thereof; (d) 1 - 8% hypromellose; (e) 5 - 10% microcrystalline cellulose; (f) 0.1 - 2% sodium lauryl sulfate; (g) 1 - 10% sodium bicarbonate; (h) 0.1 - 4.0% croscarmellose sodium; (i) 0.1 - 10% polyethylene glycol 4000; (j) 1 - 2% hydroxyethyl cellulose; and (k) 0.5 - 1% magnesium stearate. (a) 55 - 65% guaifenesin; (b) 1 - 5% dextromethorphan or a pharmaceutically acceptable salt thereof; (c) 5 - 15% naproxen or a pharmaceutically acceptable salt thereof; (d) 1 - 8% hypromellose; (e) 5 - 10% microcrystalline cellulose; (f) 0.1 - 2% sodium lauryl sulfate; (g) 1 - 10% sodium bicarbonate; (h) 0.1 - 4.0% croscarmellose sodium; (i) 0.1 - 10% polyethylene glycol 4000; (j) 1 - 2% hydroxyethyl cellulose; and (k) 0.5 - 1% magnesium stearate.
A metal resin composite body in which a resin member formed of a thermosetting resin composition and a metal member are joined, characterized in that the metal resin composite body is formed by joining the metal member in which glossiness of a measurement angle of 60° of a joining surface joining to at least the resin member measured on the basis of ASTM-D523 is greater than or equal to 0.1 and less than or equal to 30, and the resin member , wherein a melt viscosity of the thermosetting resin composition at 175°C is greater than or equal to 10 Pa · s and less than or equal to 3000 Pa · s, and wherein the thermosetting resin composition includes a phenol resin. characterized in that the metal resin composite body is formed by joining the metal member in which glossiness of a measurement angle of 60° of a joining surface joining to at least the resin member measured on the basis of ASTM-D523 is greater than or equal to 0.1 and less than or equal to 30, and the resin member , wherein a melt viscosity of the thermosetting resin composition at 175°C is greater than or equal to 10 Pa · s and less than or equal to 3000 Pa · s, and wherein the thermosetting resin composition includes a phenol resin.
A thermoelectric material, which comprises: a compound represented by a chemical formula Mg 2 Si 1-x Sn x (0<x<1) wherein at least one of the Si site and the Sn site of the compound is replaced with at least one of Sb and Bi, and an added Fe, wherein an additive amount of the Fe is 5000 ppm or more and 50000 ppm or less. a compound represented by a chemical formula Mg 2 Si 1-x Sn x (0<x<1) wherein at least one of the Si site and the Sn site of the compound is replaced with at least one of Sb and Bi, and an added Fe, wherein an additive amount of the Fe is 5000 ppm or more and 50000 ppm or less.
A system for controlling urination in a patient unable to voluntarily control urination, said system comprising: at least two implantable electrodes configured to deliver current to the patient's pudendal nerve(s) (PN1, PN2) in the form of an electrical waveform wherein the electrodes are disposed in or on an atraumatic cuff configured to fit over a branch of the patient's pudendal nerve, the cuff comprising a resilient material configured to grip and remain in place on the pudendal nerve after implantation; an implantable sensor configured to sense information corresponding to a degree of filling of the patient's bladder; an implantable controller configured to concurrently deliver at least a first and second electrical waveform to said at least two electrodes, the at least first and second electrical waveforms configured to stimulate and block the patient's pudendal nerve to cause at least a first and second physiological action involved in voiding of the bladder; an external device configured to receive information from the implantable sensor corresponding to a degree of bladder filling , display a value corresponding to the degree of filling, and to send a signal to the implantable controller to initiate voiding of the bladder. at least two implantable electrodes configured to deliver current to the patient's pudendal nerve(s) (PN1, PN2) in the form of an electrical waveform wherein the electrodes are disposed in or on an atraumatic cuff configured to fit over a branch of the patient's pudendal nerve, the cuff comprising a resilient material configured to grip and remain in place on the pudendal nerve after implantation; an implantable sensor configured to sense information corresponding to a degree of filling of the patient's bladder; an implantable controller configured to concurrently deliver at least a first and second electrical waveform to said at least two electrodes, the at least first and second electrical waveforms configured to stimulate and block the patient's pudendal nerve to cause at least a first and second physiological action involved in voiding of the bladder; an external device configured to receive information from the implantable sensor corresponding to a degree of bladder filling , display a value corresponding to the degree of filling, and to send a signal to the implantable controller to initiate voiding of the bladder.
A surgical retractor comprising: a blade ; a handle extending at an angle from a proximal end of the blade; an illumination assembly having a plurality of direct light sources provided on the blade; and a cover configured to enclose the illumination assembly, wherein the cover comprises a plurality of openings, each opening corresponding in position to a respective light source of the illumination assembly when the cover is attached to the blade; and characterised in that at least one of the light sources is angled differently relative to the blade than another one of the light sources. a blade ; a handle extending at an angle from a proximal end of the blade; an illumination assembly having a plurality of direct light sources provided on the blade; and a cover configured to enclose the illumination assembly, wherein the cover comprises a plurality of openings, each opening corresponding in position to a respective light source of the illumination assembly when the cover is attached to the blade; and
A curable adhesive composition comprising: a) a first oligomer comprising polymerizable groups selected from pendent (meth)acrylate groups or terminal aryl ketone photoinitiator groups, and comprising i. greater than 50 parts by weight of (meth)acrylate ester monomer units derived from alkanols having an average carbon number of C 4 -C 18 , ii. hydroxyl-functional monomer units, iii. monomer units having the polymerizable groups, b) a second component comprising C 2 -C 4 alkylene oxide repeat units and polymerizable terminal groups, and c) a diluent monomer component. a) a first oligomer comprising polymerizable groups selected from pendent (meth)acrylate groups or terminal aryl ketone photoinitiator groups, and comprising i. greater than 50 parts by weight of (meth)acrylate ester monomer units derived from alkanols having an average carbon number of C 4 -C 18 , ii. hydroxyl-functional monomer units, iii. monomer units having the polymerizable groups, i. greater than 50 parts by weight of (meth)acrylate ester monomer units derived from alkanols having an average carbon number of C 4 -C 18 , ii. hydroxyl-functional monomer units, iii. monomer units having the polymerizable groups, b) a second component comprising C 2 -C 4 alkylene oxide repeat units and polymerizable terminal groups, and c) a diluent monomer component.
Device for producing an impression of a surface feature, comprising a housing , comprising a displaceable punch which is mounted on or in the housing and can be pressed onto a surface , said punch comprising a blank carrier having a pressure surface which can be pressed onto a surface and on which an impression blank having an impression layer of a curable material can be detachably fixed, and comprising a curing means which is arranged on or in the housing and by means of which the curable material of the impression blank can be cured during the pressing onto the surface , characterised in that the device for producing an impression can be set up on a surface of which an impression is to be made, and in that the housing is adapted for manual use and handling.
Method for detecting an imbalance of a machine element (ME) rotating about an axis of rotation (RA), wherein a) sensor data (SD) measured at the rotating machine element (ME) are continuously captured, characterized in that b) the captured sensor data (SD) are supplied to a real-time simulation (SIM) of the rotating machine element (ME) which is carried out in parallel with the operation of the machine element (ME), c) a dynamic state (STAT) of the rotating machine element (ME) is determined by the simulation (SIM) on the basis of the supplied sensor data (SD), wherein a variable dynamic effect (F) on the rotating machine element (ME) is simulated, wherein the simulation (SIM) is carried out by means of a simulation model (SM) which represents a vibrational deflection of the rotating machine element (ME), wherein a reduced simulation model (SM) is derived from a numerical structural model of the machine element (ME), in which simulation model an influence of an imbalance is modelled as a force acting on the rotating machine element (ME), and wherein the simulation (SIM) is carried out by means of the derived reduced simulation model (SM), d) simulated sensor data (SSD) are determined on the basis of the determined dynamic state (STAT), e) the force acting on the rotating machine element (ME) is varied in such a manner that a distance (D) between the simulated sensor data (SSD) and the captured sensor data (SD) is reduced, and f) an absolute value (|F u |) of the imbalance is derived from a dynamic effect (RF) resulting from the variation and is output. a) sensor data (SD) measured at the rotating machine element (ME) are continuously captured, characterized in that b) the captured sensor data (SD) are supplied to a real-time simulation (SIM) of the rotating machine element (ME) which is carried out in parallel with the operation of the machine element (ME), c) a dynamic state (STAT) of the rotating machine element (ME) is determined by the simulation (SIM) on the basis of the supplied sensor data (SD), wherein a variable dynamic effect (F) on the rotating machine element (ME) is simulated, wherein the simulation (SIM) is carried out by means of a simulation model (SM) which represents a vibrational deflection of the rotating machine element (ME), wherein a reduced simulation model (SM) is derived from a numerical structural model of the machine element (ME), in which simulation model an influence of an imbalance is modelled as a force acting on the rotating machine element (ME), and wherein the simulation (SIM) is carried out by means of the derived reduced simulation model (SM), d) simulated sensor data (SSD) are determined on the basis of the determined dynamic state (STAT), e) the force acting on the rotating machine element (ME) is varied in such a manner that a distance (D) between the simulated sensor data (SSD) and the captured sensor data (SD) is reduced, and f) an absolute value (|F u |) of the imbalance is derived from a dynamic effect (RF) resulting from the variation and is output.
A composition comprising adherent stromal cells for use in mitigating damage to the gastrointestinal system in a subject exposed to radiation and/or chemotherapy, wherein the adherent stromal cells were cultured under three dimensional culturing conditions, wherein the origin of the adherent stromal cells is placenta.
A tissue-stimulating prosthesis system , comprising: one or more sound input elements configured to receive a sound signal; a sound processor configured to generate one or more processed signals representative of the sound signal; a plurality of stimulation channels (Ch1, Ch2, ...) each terminating at one or more electrical stimulating contacts (128 to 128 ) implanted in a cochlea of a recipient; and a stimulator unit configured to simultaneously generate, based on at least one of the one or more processed signals, overlapping time varying current fields across two or more of the stimulation channels (Ch1, Ch2, ...), characterized in that the stimulator unit is configured to apply a dynamic stimulation pulse sliding across two stimulation channels (Ch1, Ch2, ...) by simultaneously delivering current stimulation at a first and a second channel while dynamically changing the weighting between each channel over time according to the desired location of current stimulation so that a time varying change in a locus of the current stimulation is caused to steadily move the locus of excitation over time so as to more closely mimic features of the acoustic traveling wave and/or to mimic other dynamic features. one or more sound input elements configured to receive a sound signal; a sound processor configured to generate one or more processed signals representative of the sound signal; a plurality of stimulation channels (Ch1, Ch2, ...) each terminating at one or more electrical stimulating contacts (128 to 128 ) implanted in a cochlea of a recipient; and a stimulator unit configured to simultaneously generate, based on at least one of the one or more processed signals, overlapping time varying current fields across two or more of the stimulation channels (Ch1, Ch2, ...), characterized in that the stimulator unit is configured to apply a dynamic stimulation pulse sliding across two stimulation channels (Ch1, Ch2, ...) by simultaneously delivering current stimulation at a first and a second channel while dynamically changing the weighting between each channel over time according to the desired location of current stimulation so that a time varying change in a locus of the current stimulation is caused to steadily move the locus of excitation over time so as to more closely mimic features of the acoustic traveling wave and/or to mimic other dynamic features.
An electrochemical cell , comprising: a) a casing of 304L stainless steel having a chromium content of from 15 wt% to 20 wt%, wherein the casing is characterized as having been annealed at a temperature ranging from about 954°C to about 982°C (about 1,750°F to about 1,800°F) so that the 304L stainless steel has a grain size that ranges from about ASTM 7 to about ASTM 8.5; b) a lithium-containing anode disposed inside the casing ; and c) a cathode comprising a charge transfer complex of an organic donor component and iodine as an electron acceptor component disposed inside the casing, wherein the charge transfer complex is in operative contact with the lithium-containing anode and the casing so that the casing serves as a cathode current collector. a) a casing of 304L stainless steel having a chromium content of from 15 wt% to 20 wt%, wherein the casing is characterized as having been annealed at a temperature ranging from about 954°C to about 982°C (about 1,750°F to about 1,800°F) so that the 304L stainless steel has a grain size that ranges from about ASTM 7 to about ASTM 8.5; b) a lithium-containing anode disposed inside the casing ; and c) a cathode comprising a charge transfer complex of an organic donor component and iodine as an electron acceptor component disposed inside the casing, wherein the charge transfer complex is in operative contact with the lithium-containing anode and the casing so that the casing serves as a cathode current collector.
A computing device , comprising: a controller circuit coupled to a button , wherein the controller circuit is configured to detect when the button has been pressed and to provide a notification indicating that the button has been pressed; a camera configured to capture a first set of biometric data of a first user; and a secure circuit configured to perform an authentication of the first user by: confirming that the notification was received from the controller circuit, wherein the notification identifies the button being pressed; comparing the first set of biometric data with a second set of biometric data for an authorized user of the computing device; and examining a timestamp indicative of when the button has been pressed in order to confirm that the button is pressed within a threshold time period of the biometric authentication being performed, wherein exceeding the threshold time period results in a failure of the authentication of the first user. a controller circuit coupled to a button , wherein the controller circuit is configured to detect when the button has been pressed and to provide a notification indicating that the button has been pressed; a camera configured to capture a first set of biometric data of a first user; and a secure circuit configured to perform an authentication of the first user by: confirming that the notification was received from the controller circuit, wherein the notification identifies the button being pressed; comparing the first set of biometric data with a second set of biometric data for an authorized user of the computing device; and examining a timestamp indicative of when the button has been pressed in order to confirm that the button is pressed within a threshold time period of the biometric authentication being performed, wherein exceeding the threshold time period results in a failure of the authentication of the first user. confirming that the notification was received from the controller circuit, wherein the notification identifies the button being pressed; comparing the first set of biometric data with a second set of biometric data for an authorized user of the computing device; and examining a timestamp indicative of when the button has been pressed in order to confirm that the button is pressed within a threshold time period of the biometric authentication being performed, wherein exceeding the threshold time period results in a failure of the authentication of the first user.
A method of processing particulate carbonaceous feedstock for the production of oil, the feedstock comprising biomass, the method comprising: feeding the feedstock to a vessel having an inner diameter D meters; providing one or more hard objects in the vessel wherein the one or more objects are provided as grinding media in an amount to occupy 10% to 50% of the volume V of the vessel; rotating the vessel at a speed of 55% to 90% of a critical speed CS wherein: CS = 42.3/D 0.5 rpm; while the vessel is rotating at the speed of 55% to 90% of CS, simultaneously subjecting feedstock to a particle size reduction process and pyrolysis wherein the particle size reduction process comprises repeatedly contacting the feedstock with the one or more hard objects; and condensing organic vapour generated by the pyrolysis to form oil. feeding the feedstock to a vessel having an inner diameter D meters; providing one or more hard objects in the vessel wherein the one or more objects are provided as grinding media in an amount to occupy 10% to 50% of the volume V of the vessel; rotating the vessel at a speed of 55% to 90% of a critical speed CS wherein: CS = 42.3/D 0.5 rpm; while the vessel is rotating at the speed of 55% to 90% of CS, simultaneously subjecting feedstock to a particle size reduction process and pyrolysis wherein the particle size reduction process comprises repeatedly contacting the feedstock with the one or more hard objects; and condensing organic vapour generated by the pyrolysis to form oil.
A substrate holder (WT) for a lithographic apparatus, the substrate holder configured to support a lower surface of a substrate, wherein the substrate holder comprises: a main body having a substrate-facing face ; a plurality of burls protruding from the substrate-facing face, each burl having a distal end configured to engage with the substrate, the distal ends substantially conforming to a support plane and being configured for supporting the substrate; and a coating on the substrate-facing face between the burls, the coating having a thickness; wherein between the burls the substrate-facing face comprises an arrangement of areas (42;43), characerised in that adjacent ones of the areas are separated by a step-change in distance below the support plane, wherein each step-change is greater than the thickness of the coating. a main body having a substrate-facing face ; a plurality of burls protruding from the substrate-facing face, each burl having a distal end configured to engage with the substrate, the distal ends substantially conforming to a support plane and being configured for supporting the substrate; and a coating on the substrate-facing face between the burls, the coating having a thickness; wherein between the burls the substrate-facing face comprises an arrangement of areas (42;43), characerised in that adjacent ones of the areas are separated by a step-change in distance below the support plane, wherein each step-change is greater than the thickness of the coating.
Package for packaging bottles or cans including the components of - an outer package for at least partial repackaging of bottles or cans, consisting of a heat-shrinkable plastic film and - a carrying handle attached to the outer package including an additional carrying handle component , wherein all components of the package consist of at least one recyclable plastic material and wherein the additional carrying handle component consists of a printable plastic material and has an imprint , and wherein the additional carrying handle component is attached to the carrying handle as an additional plastic layer characterized in that the additional carrying handle component is mounted on the side facing away from the outer package . - an outer package for at least partial repackaging of bottles or cans, consisting of a heat-shrinkable plastic film and - a carrying handle attached to the outer package including an additional carrying handle component , wherein all components of the package consist of at least one recyclable plastic material and wherein the additional carrying handle component consists of a printable plastic material and has an imprint , and wherein the additional carrying handle component is attached to the carrying handle as an additional plastic layer characterized in that the additional carrying handle component is mounted on the side facing away from the outer package .