mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production of bio-oil from biomass comprising the following steps: (a) feeding the liquefaction reactor with a biomass having a protein content ranging from 5% by weight to 50 % by weight, with respect to the weight (dry weight) of said biomass, a lipid content ranging from 5% by weight and 60% by weight, with respect to the weight (dry weight) of said biomass, a pH ranging from 4.5 to 10; (b) subjecting said biomass to liquefaction operating at a temperature ranging from 240°C to 300°C, at a pressure higher than the vapor pressure of water at the temperature in which said liquefaction is carried out, for a time ranging from 50 minutes to 270 minutes, obtaining a mixture including an oily phase consisting of bio-oil, a solid phase, a gaseous phase and an aqueous phase; wherein in step a) the biomass is solid urban waste and has the following composition: SUW Lipids (%)* Carbohydrates (%)* Proteins (%)* Ashes (%)* Water (%)* Total (%)* pH As such 8.9 11.7 7.6 1.6 70.1 100 6.5 Anhydrous 29.8 39.3 25.5 5.4 0 100 n. m.** wherein (*) indicates the weight % with respect to the total weight of the homogenized product (As such) or with respect to the total weight of the homogenized product after anhydrification (Anhydrous); (**) indicates not measurable; and SUW means "solid urban waste"; wherein in step b) the biomass is subjected to said liquefaction according to the conditions chosen from a single one of the following 1, 2, 3 or 4: Temperature (°C) P MAX (bar) Time (minutes) 1 240 44 54 2 240 40 250 3 300 90 96 4 240 40 263 ; and wherein said biomass is treated by subjecting it to a preliminary process of homogenization, before undergoing said liquefaction step (b). (a) feeding the liquefaction reactor with a biomass having a protein content ranging from 5% by weight to 50 % by weight, with respect to the weight (dry weight) of said biomass, a lipid content ranging from 5% by weight and 60% by weight, with respect to the weight (dry weight) of said biomass, a pH ranging from 4.5 to 10; (b) subjecting said biomass to liquefaction operating at a temperature ranging from 240°C to 300°C, at a pressure higher than the vapor pressure of water at the temperature in which said liquefaction is carried out, for a time ranging from 50 minutes to 270 minutes, obtaining a mixture including an oily phase consisting of bio-oil, a solid phase, a gaseous phase and an aqueous phase;
A system for treating a medical condition of a patient, the system comprising: a stimulator comprising a housing having a contact surface comprising one or more electrodes for contacting an outer skin surface of the patient, wherein the housing is configured to attach and electrically couple to a mobile device configured to receive a wireless signal; an energy source coupled to the stimulator and the mobile device; a signal generator coupled to the energy source and the one or more electrodes, (i) wherein the signal generator is situated within the stimulator housing, or (ii) wherein the signal generator is located exterior to the stimulator housing, wherein at least one of the mobile device or the stimulator stores a set of instructions which instruct the signal generator to transmit an electrical impulse to the electrodes, wherein the set of instructions is a software application wirelessly downloaded onto the mobile device, and wherein based on the set of instructions the signal generator is configured to generate an electrical impulse signal sufficient to transmit an electric current through the contact surface and the outer skin surface of the patient sufficient to modulate a nerve at a target region within the patient; characterized in that the electrical impulse signal comprises bursts of pulses and a frequency of 1 Hz to 100 Hz, wherein each of the pulses comprises a frequency from 1 KHz to 20 KHz. a stimulator comprising a housing having a contact surface comprising one or more electrodes for contacting an outer skin surface of the patient, wherein the housing is configured to attach and electrically couple to a mobile device configured to receive a wireless signal; an energy source coupled to the stimulator and the mobile device; a signal generator coupled to the energy source and the one or more electrodes, (i) wherein the signal generator is situated within the stimulator housing, or (ii) wherein the signal generator is located exterior to the stimulator housing, wherein at least one of the mobile device or the stimulator stores a set of instructions which instruct the signal generator to transmit an electrical impulse to the electrodes, wherein the set of instructions is a software application wirelessly downloaded onto the mobile device, and wherein based on the set of instructions the signal generator is configured to generate an electrical impulse signal sufficient to transmit an electric current through the contact surface and the outer skin surface of the patient sufficient to modulate a nerve at a target region within the patient; characterized in that the electrical impulse signal comprises bursts of pulses and a frequency of 1 Hz to 100 Hz, wherein each of the pulses comprises a frequency from 1 KHz to 20 KHz.
An imaging device , comprising: a control unit that receives focal length information indicative of a focal length of an imaging lens of the imaging device and detection angle information indicative of a rotation angle of the imaging device, wherein the control unit comprises a correction amount calculation unit that calculates, on the basis of at least one of the received focal length information and the received detection angle information, correction information correcting at least one of a display position and an inclination of overlapping display information (BD11, BD12, BD31, BD41, BD51, BD61, BDR11, BDR12) to be displayed in an overlapping relationship with an image captured through the imaging lens, and a display controlling unit that changes at least one of the display position and the inclination of the overlapping display information on the basis of the correction information such that a relative positional relationship between an imaging object on the image and the overlapping display information is maintained. a control unit that receives focal length information indicative of a focal length of an imaging lens of the imaging device and detection angle information indicative of a rotation angle of the imaging device, wherein the control unit comprises a correction amount calculation unit that calculates, on the basis of at least one of the received focal length information and the received detection angle information, correction information correcting at least one of a display position and an inclination of overlapping display information (BD11, BD12, BD31, BD41, BD51, BD61, BDR11, BDR12) to be displayed in an overlapping relationship with an image captured through the imaging lens, and a display controlling unit that changes at least one of the display position and the inclination of the overlapping display information on the basis of the correction information such that a relative positional relationship between an imaging object on the image and the overlapping display information is maintained.
A method for forming a three-dimensional semiconductor device, comprising: performing a first implantation on a first substrate of a first semiconductor structure to form a buried stop layer in the first substrate ; forming a second semiconductor structure ; bonding the first semiconductor structure and the second semiconductor structure ; forming the first semiconductor structure including a first device layer and the first substrate ; forming a doped semiconductor layer on the buried stop layer ; forming the first device layer on the doped semiconductor layer ; forming the doped semiconductor layer and the buried stop layer in the first substrate ; wherein the first semiconductor structure includes the first substrate , a memory stack disposed on the first substrate and including a plurality of conductor/dielectric layer pairs, and a plurality of channel structures each extending vertically through the memory stack, wherein each of the channel structures includes a semiconductor channel extending vertically through the conductor/dielectric layer pairs, and a memory film disposed laterally between the conductor/dielectric layer pairs and the semiconductor channel, wherein a bottom portion of the semiconductor channel is in contact with the doped semiconductor layer to form an electrical connection therebetween; thinning the first substrate and removing the buried stop layer ; and forming an interconnect layer above the thinned first substrate . performing a first implantation on a first substrate of a first semiconductor structure to form a buried stop layer in the first substrate ; forming a second semiconductor structure ; bonding the first semiconductor structure and the second semiconductor structure ; forming the first semiconductor structure including a first device layer and the first substrate ; forming a doped semiconductor layer on the buried stop layer ; forming the first device layer on the doped semiconductor layer ; forming the doped semiconductor layer and the buried stop layer in the first substrate ; wherein the first semiconductor structure includes the first substrate , a memory stack disposed on the first substrate and including a plurality of conductor/dielectric layer pairs, and a plurality of channel structures each extending vertically through the memory stack, wherein each of the channel structures includes a semiconductor channel extending vertically through the conductor/dielectric layer pairs, and a memory film disposed laterally between the conductor/dielectric layer pairs and the semiconductor channel, wherein a bottom portion of the semiconductor channel is in contact with the doped semiconductor layer to form an electrical connection therebetween; thinning the first substrate and removing the buried stop layer ; and forming an interconnect layer above the thinned first substrate .
An RFID interrogation probe for interrogating RFID tagged disposable cryogenic storage containers, the probe comprising: a ring shaped housing , having a length along a central axis running through the housing from one side to an opposite side which is less than and transverse to the innermost diameter (d i ) of the ring shaped housing; a looped antenna housed within the ring shaped housing; wherein the interrogation probe further comprises: an RFID reader module communicably connected to the antenna for transmitting an encoded radio signal to the RFID tagged container. a ring shaped housing , having a length along a central axis running through the housing from one side to an opposite side which is less than and transverse to the innermost diameter (d i ) of the ring shaped housing; a looped antenna housed within the ring shaped housing;
A wellbore apparatus, comprising: - a first component having a first element ; and - a second component having a second element , the first element and the second element being operatively connected to one another, the first element and the second element each being a segment of a line , characterised by the first component and the second component being connected by a multi-start thread connection . - a first component having a first element ; and - a second component having a second element , the first element and the second element being operatively connected to one another, the first element and the second element each being a segment of a line , characterised by the first component and the second component being connected by a multi-start thread connection .
A TOF camera system comprising several cameras , at least one of the cameras being a TOF camera, wherein the cameras are assembled on a common silicon-based substrate and are imaging the same scene , wherein the several cameras comprise at least two colour cameras which are driven by stereoscopic technique and provide a stereoscopic principle based depth measurement, wherein an image fusion of the information of the stereoscopic principle based depth measurement with the information of a depth map originated from the TOF camera is computed which yields an improved and/or refined resulting image with at least a higher quality depth measurement for each single pixel or a higher resolution.
Blank for dental purposes which comprises a first and a second layer which, independently of each other, are based on glass, glass-ceramic or ceramic, wherein the first layer and the second layer differ in colour and form a boundary surface , wherein the boundary surface runs obliquely, wherein the blank has a rotation axis and an insertion axis, wherein the rotation axis is the axis about which the blank is rotated during the machining for shaping the desired dental restoration, and the insertion axis is the axis running in the cervical-incisal direction, wherein in a first sectional plane through the blank, which runs parallel to the insertion axis of the blank, the boundary surface has an angle of 10 to 70°, preferably 10 to 60°, to the rotation axis of the blank, wherein the angle between the insertion axis and the rotation axis of the blank in the first sectional plane is from 70 to 110°. glass, glass-ceramic or ceramic, wherein the first layer and the second layer differ in colour and form a boundary surface , wherein the boundary surface runs obliquely, wherein the blank has a rotation axis and an insertion axis, wherein the rotation axis is the axis about which the blank is rotated during the machining for shaping the desired dental restoration, and the insertion axis is the axis running in the cervical-incisal direction, wherein in a first sectional plane through the blank, which runs parallel to the insertion axis of the blank, the boundary surface has an angle of 10 to 70°, preferably 10 to 60°, to the rotation axis of the blank, wherein the angle between the insertion axis and the rotation axis of the blank in the first sectional plane is from 70 to 110°.
A method for the manufacture of cups made of carton having a liquid-impermeable coating on the inside, in which • an annular sector-shaped or circular sector-shaped blank from the carton having the liquid-impermeable coating on the inside is laid around a conical dome so that its two radially extended lateral edge areas overlap one another, • the two radially extended lateral edge areas are sealed to one another, characterized in that • at least one of the two radially extended lateral edge areas is moistened with a liquid over its total longitudinal extension so that the coated carton of the radially extended lateral edge area is made softer and the edge areas are then sealed to one another. • an annular sector-shaped or circular sector-shaped blank from the carton having the liquid-impermeable coating on the inside is laid around a conical dome so that its two radially extended lateral edge areas overlap one another, • the two radially extended lateral edge areas are sealed to one another, characterized in that • at least one of the two radially extended lateral edge areas is moistened with a liquid over its total longitudinal extension so that the coated carton of the radially extended lateral edge area is made softer and the edge areas are then sealed to one another.
A method for adhering a catechol and quinone functionalised layer to a substrate wherein the method comprises the steps of: a) providing a substrate, b) providing a precursor which comprises a vinyl monomer or a non-vinylic molecule, substituted by an unprotected catechol group, with a vinylic or a non-vinylic co-monomer; characterized by the additional step: c) applying a plasma to the precursor and the substrate in order to form a coating comprising a catechol and quinone functionalised layer on the substrate. a) providing a substrate, b) providing a precursor which comprises a vinyl monomer or a non-vinylic molecule, substituted by an unprotected catechol group, with a vinylic or a non-vinylic co-monomer;
Grate track separator , which is composed of a plurality of individual fixedly arranged and mounted grate track separation elements , for the fixed arrangement in the form of a central beam between two grate tracks of an inclined feed grate , which is formed in a stepped manner from individual grate rods arranged in rows, of a push grate firing system, in particular for grate firing, wherein each grate track separation element has a flat support surface on the upper side and an upright end surface on the front side in the direction of thrust of the feed grate , as well as a front bearing surface on the underside and, spaced therefrom on the underside, a rear grate rod carrier receptacle formed in the form of a recess and wherein a plurality of the grate track separating elements are arranged in a stepwise manner, in each case with their front bearing surface on the underside resting on the flat support surface of the next grate track separation element adjacent in each case on the front side in a longitudinal direction (L) to the respective grate track separation element , and wherein each grate track separation element is formed as a cast part with tubular water-permeable conduits formed in cast part walls during cast part thereof.
A cross-linkable nitrile rubber composition comprising: a nitrile rubber (a) containing 0.1 to 15 wt% of α,β-ethylenically unsaturated nitrile monomer units, 1 to 10 wt% of α,β-ethylenically unsaturated dicarboxylic acid monoester monomer units, 40 to 75 wt% of α,β-ethylenically unsaturated monocarboxylic acid ester monomer units, and 20 to 58.9 wt% of diene monomer units and/or α-olefin monomer units, and a polyamine-based cross-linking agent (b), wherein a ratio of content of the polyamine-based cross-linking agent (b) with respect to 100 parts by weight of the nitrile rubber (a) is 0.1 to 20 parts by weight. a nitrile rubber (a) containing 0.1 to 15 wt% of α,β-ethylenically unsaturated nitrile monomer units, 1 to 10 wt% of α,β-ethylenically unsaturated dicarboxylic acid monoester monomer units, 40 to 75 wt% of α,β-ethylenically unsaturated monocarboxylic acid ester monomer units, and 20 to 58.9 wt% of diene monomer units and/or α-olefin monomer units, and a polyamine-based cross-linking agent (b), wherein a ratio of content of the polyamine-based cross-linking agent (b) with respect to 100 parts by weight of the nitrile rubber (a) is 0.1 to 20 parts by weight.
A method comprising: receiving (1610-A, 1706, 1806, 2102), by a base station distributed unit from a wireless device, a radio resource control, RRC, message comprising traffic pattern information associated with a logical channel, wherein the traffic pattern information comprises: a traffic periodicity field; and a timing offset field; sending (1610-B, 1707, 1807, 2103), by the base station distributed unit to a base station central unit, the RRC message comprising the traffic pattern information; receiving , by the base station distributed unit from the base station central unit, a first message comprising the traffic pattern information; determining , by the base station distributed unit and based on the traffic pattern information, configuration parameters of at least one configured grant resource for the wireless device; and sending , by the base station distributed unit to the wireless device, an indication of activation of the at least one configured grant resource. receiving (1610-A, 1706, 1806, 2102), by a base station distributed unit from a wireless device, a radio resource control, RRC, message comprising traffic pattern information associated with a logical channel, wherein the traffic pattern information comprises: a traffic periodicity field; and a timing offset field; a traffic periodicity field; and a timing offset field; sending (1610-B, 1707, 1807, 2103), by the base station distributed unit to a base station central unit, the RRC message comprising the traffic pattern information; receiving , by the base station distributed unit from the base station central unit, a first message comprising the traffic pattern information; determining , by the base station distributed unit and based on the traffic pattern information, configuration parameters of at least one configured grant resource for the wireless device; and sending , by the base station distributed unit to the wireless device, an indication of activation of the at least one configured grant resource.
Device (9; 109; 209) for attaching to a chassis of a vehicle a cylinder (50; 150; 250) comprising a ball (51; 151; 251) of a ball joint, comprising: - a support element (110; 210) which can be mounted on the chassis; and - a ball joint housing (130; 230), which comprises a ball socket (131; 231) of the ball joint against which the ball (51; 151; 251) can lie, wherein the ball joint housing (130; 230) is attached releasably to the support element (110; 210), characterized in that the ball joint housing (130; 230) is attached releasably to the support element (110; 210) by means of a first bayonet connection. - a support element (110; 210) which can be mounted on the chassis; and - a ball joint housing (130; 230), which comprises a ball socket (131; 231) of the ball joint against which the ball (51; 151; 251) can lie, wherein the ball joint housing (130; 230) is attached releasably to the support element (110; 210),
Storage operating device with a drive which is supplied with electrical energy from a power supply network via an inverter, wherein the inverter has an electrical intermediate circuit, wherein the storage operating device has a control device which is designed to detect and react to a power failure, characterized in that to detect a power failure of the power supply network the control device has means for monitoring the intermediate circuit voltage in the intermediate circuit, wherein when a power failure is detected the control device switches the storage operating device into a generating operating phase of the drive, wherein the switching is effected by setting a predefined pilot control value for the drive torque. to detect a power failure of the power supply network the control device has means for monitoring the intermediate circuit voltage in the intermediate circuit, wherein when a power failure is detected the control device switches the storage operating device into a generating operating phase of the drive, wherein the switching is effected by setting a predefined pilot control value for the drive torque.
A method for managing pressure of a vehicle against a surface, comprising the steps of: sensing a vehicle location of the vehicle ; determining a landscape position based on the vehicle location; determining a vehicle mass of the vehicle ; and adjusting the pressure of the vehicle against the surface based on both the landscape position and the vehicle mass of the vehicle , characterized in that the step of determining a vehicle mass of the vehicle comprises using a value based on a determined path and stored material utilization using a known initial weight of grain, seed or fertilizer in a tank and determining the remaining weight of the grain, seed or fertilizer after application at a given rate along the determined path. sensing a vehicle location of the vehicle ; determining a landscape position based on the vehicle location; determining a vehicle mass of the vehicle ; and adjusting the pressure of the vehicle against the surface based on both the landscape position and the vehicle mass of the vehicle , characterized in that the step of determining a vehicle mass of the vehicle comprises using a value based on a determined path and stored material utilization using a known initial weight of grain, seed or fertilizer in a tank and determining the remaining weight of the grain, seed or fertilizer after application at a given rate along the determined path.