mhurhangee/ep-ind-claims huggingface dataset:
A charging member comprising a substrate, an elastic layer and a surface layer; wherein; the surface layer comprises a high-molecular compound having a constituent unit represented by the following formula and a constituent unit represented by the following formula, and having an Si-O-Zr linkage: Formula ZrO 4/2 wherein R 1 and R 2 each independently represent any of structures represented by the following formulas to: where, in the formulas to, R 3 to R 7, R 10 to R 14, R 19, R 20, R 25 and R 26 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atom(s), a hydroxyl group, a carboxyl group or an amino group; R 8, R 9, R 15 to R 18, R 23, R 24 and R 29 to R 32 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atom(s); R 21, R 22, R 27 and R 28 each independently represent a hydrogen atom or an alkoxyl group or alkyl group having 1 to 4 carbon atom(s); n, m, l, q, s and t each independently represent an integer of 1 or more to 8 or less, p and r each independently represent an integer of 4 to 12, and x and y each independently represent 0 or 1; and an asterisk * and a double asterisk ** each represent the position of bonding with the silicon atom and oxygen atom, respectively, in the formula. wherein; the surface layer comprises a high-molecular compound having a constituent unit represented by the following formula and a constituent unit represented by the following formula, and having an Si-O-Zr linkage: Formula ZrO 4/2 wherein R 1 and R 2 each independently represent any of structures represented by the following formulas to: where, in the formulas to, R 3 to R 7, R 10 to R 14, R 19, R 20, R 25 and R 26 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atom(s), a hydroxyl group, a carboxyl group or an amino group; R 8, R 9, R 15 to R 18, R 23, R 24 and R 29 to R 32 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atom(s); R 21, R 22, R 27 and R 28 each independently represent a hydrogen atom or an alkoxyl group or alkyl group having 1 to 4 carbon atom(s); n, m, l, q, s and t each independently represent an integer of 1 or more to 8 or less, p and r each independently represent an integer of 4 to 12, and x and y each independently represent 0 or 1; and an asterisk * and a double asterisk ** each represent the position of bonding with the silicon atom and oxygen atom, respectively, in the formula.
A disposable surgical blade assembly consisting of a blade, a blade holder and a blade shield, wherein the blade is fixed in the front portion of the blade holder and the blade shield is slidably mounted on the blade holder; wherein the said blade holder is provided with a flexible arm at its rear end which extends backward and is connectable to a handle, wherein the flexible arm is provided with a locking block used for engagement with a second inclined block at a front end of the handle and a protrusion block used to prevent the deformation of the flexible arm, wherein the protrusion block extends towards the inner wall of the blade shield and the inner wall of the blade shield is provided with a clearance opening for said protrusion block facing the clearance opening in the initial locating state of said blade assembly; wherein the blade holder is configured in such a way that when the handle is inserted into the blade assembly to be connected with it, the flexible arm is forced to be flexed and the protrusion block is forced to extend into the clearance opening with sideward movement by the second inclined block of the handle acting on the locking block; wherein the flexible arm is configured to automatically return to initial position resiliently after the second inclined block of handle travels across the locking block, and the locking block is engaged by the second inclined block to connect the handle and the blade holder; wherein the blade holder is configured to be drawn backward by the second inclined block with respect to the blade shield through the locking block to force the protrusion block to misalign with the clearance opening during removal of handle; wherein the blade assembly is configured in such a way that the handle cannot be re-inserted into the blade assembly to be connected with blade holder as the protrusion block is configured such that it cannot make sideward movement through clearance opening.
A trans mucosal neuromuscular electrical stimulation device comprising a mouthpiece, electrode means associated with the mouthpiece and electrical circuitry operatively connected to the electrode means, characterised in that the mouthpiece (3; 103) comprises a pair of arms joined together at one end and diverging from one another with at least one flange extending inwardly from at least one arm, the at least one flange being shaped to cooperate or approximate or accommodate a dorsal tongue surface, the at least one flange includes the electrode means associated therewith for providing, in use, via the electrode means electrical stimulation to one or more palate and/or tongue muscles via the dorsal tongue surface to increase resting muscle tone and/or muscle tone during sleep.
Electric machine with a machine housing in which a rotor with a shaft and a stator with a stator winding are accommodated, wherein the aforesaid stator winding comprises winding overhangs arranged on opposing sides in each case in a winding-overhang space, and also with a cooling device which has a liquid cooling circuit with stator casing cooling and cooling pipe coils, which are guided outside the winding overhang through the winding-overhang spaces, characterised in that the cooling device comprises at least one air cooling means, preferably connected to the rotor, for circulating air in the winding-overhang spaces, wherein the air cooling means has two fan impellers, associated with an overhang space in each case, for generating an air stream which circulates within each winding-overhang space and which is guided to circulate by means of air duct and/or air conduction means in the respective overhang space over the exposed cooling pipe coils and through the winding overhangs, wherein the winding-overhang spaces in each case form closed air circulation spaces and are formed separately from each other with regard to the cooling-air circulation, wherein the air duct and/or air conduction means comprise slot-shaped through-holes in the respective winding overhang, arranged on the neck of the winding overhangs, which are distributed over the periphery of the winding overhang, and cooling-air cutouts passing in the longitudinal direction through the winding overhangs, which cutouts communicate with the aforesaid through-holes on the neck of the winding overhangs, wherein the cooling pipe coils which extend in annular manner around the axis of the shaft are arranged on the end faces of the winding overhangs in a gap provided there in each case between the end faces of the winding overhangs and end shields (4, 5).
A liquid silicone composition for coating at a speed of greater than or equal to 100 m/min onto fibrous or nonfibrous flexible supports and which is capable of crosslinking to form a release and water-repellent coating, comprising a silicone base capable of curing by radical or cationic polyaddition reactions comprising, per 100 parts by weight of silicone base, from 1 to 40 parts by weight, preferably from 1 to 30 parts by weight, preferably from 3 to 20 parts by weight, of an additive essentially composed: I. of from 1 to 80% by weight, or from 5 to 80% by weight, or also from 10 to 50% by weight, preferably from 10 to 45% by weight, of particulate siliceous filler, preferably of nanometric size, treated with at least one compatibilizing agent, II. of from 95 to 20% by weight, preferably from 90 to 55% by weight, of at least one silicone oil having a viscosity nil, in mPa.s at 25°C, such that, in increasing order of preference: - 8000 ≤ ηII ≤ 2 000 000 - 8000 ≤ ηII ≤ 500 000 - 8000 ≤ ηII ≤ 100 000 III. and optionally of at least one silicone oil with a viscosity ηIII of less than or equal to 8000 mPa.s at 25°C; the particulate siliceous filler being dispersed in the silicone oil II, optionally made up with the silicone oil III; this composition having an overall viscosity of less than or equal to 5000 mPa.s at 25°C, preferably of less than or equal to 2000 mPa.s at 25°C. I. of from 1 to 80% by weight, or from 5 to 80% by weight, or also from 10 to 50% by weight, preferably from 10 to 45% by weight, of particulate siliceous filler, preferably of nanometric size, treated with at least one compatibilizing agent, II. of from 95 to 20% by weight, preferably from 90 to 55% by weight, of at least one silicone oil having a viscosity nil, in mPa.s at 25°C, such that, in increasing order of preference: - 8000 ≤ ηII ≤ 2 000 000 - 8000 ≤ ηII ≤ 500 000 - 8000 ≤ ηII ≤ 100 000 - 8000 ≤ ηII ≤ 2 000 000 - 8000 ≤ ηII ≤ 500 000 - 8000 ≤ ηII ≤ 100 000 III. and optionally of at least one silicone oil with a viscosity ηIII of less than or equal to 8000 mPa.s at 25°C; the particulate siliceous filler being dispersed in the silicone oil II, optionally made up with the silicone oil III; this composition having an overall viscosity of less than or equal to 5000 mPa.s at 25°C, preferably of less than or equal to 2000 mPa.s at 25°C.
Seat longitudinal adjustment unit, comprising - a drive mechanism, - two tracks, each of which having at least one spindle, which are arranged parallel to a longitudinal axis and at a distance to each other, and - two drive trains, which can be driven by the drive mechanism, - wherein each of the drive trains comprises a first transmission unit and a second transmission unit, and the second transmission unit is coupled to the drive mechanism by means of the first transmission unit, - wherein the second transmission unit of each respective drive train is coupled to one of the tracks in order to produce a forward motion along the longitudinal axis, characterized in that the first transmission unit is connected to the drive mechanism by means of a first shaft and the second transmission unit is connected to the first transmission unit by means of a second shaft. - a drive mechanism, - two tracks, each of which having at least one spindle, which are arranged parallel to a longitudinal axis and at a distance to each other, and - two drive trains, which can be driven by the drive mechanism, - wherein each of the drive trains comprises a first transmission unit and a second transmission unit, and the second transmission unit is coupled to the drive mechanism by means of the first transmission unit, - wherein the second transmission unit of each respective drive train is coupled to one of the tracks in order to produce a forward motion along the longitudinal axis,
A method for voice control of a mobile device, the method comprising: establishing a connection between the mobile device and a voice-control module; responsive to establishing the connection, the mobile device entering a mode in which at least some predetermined functionality of the mobile device is disabled to reduce power consumption while still allowing the mobile device to process commands from the voice-control module and in which the mobile device monitors for instructions from the voice-control module and for the receipt of a communication; monitoring at the voice-control module for verbal input comprising a verbal command from among a set of predetermined verbal commands; in response to receiving a verbal command from among the set of predetermined verbal commands, sending instructions based on the received verbal command from the voice-control module to the mobile device and acting on the received instructions at the mobile device; wherein the at least some predetermined functionality comprises ability to communicate with one or more predetermined networks, and/or wherein the at least some predetermined functionality comprises ability to monitor for verbal commands. establishing a connection between the mobile device and a voice-control module; responsive to establishing the connection, the mobile device entering a mode in which at least some predetermined functionality of the mobile device is disabled to reduce power consumption while still allowing the mobile device to process commands from the voice-control module and in which the mobile device monitors for instructions from the voice-control module and for the receipt of a communication; monitoring at the voice-control module for verbal input comprising a verbal command from among a set of predetermined verbal commands; in response to receiving a verbal command from among the set of predetermined verbal commands, sending instructions based on the received verbal command from the voice-control module to the mobile device and acting on the received instructions at the mobile device; wherein the at least some predetermined functionality comprises ability to communicate with one or more predetermined networks, and/or wherein the at least some predetermined functionality comprises ability to monitor for verbal commands.
Biogas generating plant with tunnel fermentation chamber, equipped with biomass container with thermally insulated base and essentially vertical foundation walls, installations for moisturising biomass with a process liquid, installations for recirculation of seepage water, arch roof covering spread over arch load-bearing construction and supported on essentially vertical biomass container walls, gas-tight gable walls and biogas store formed by double layer of roof covering foil with inlet to biogas store situated in upper part of fermentation chamber, characterised in that two layers of foil, upper and lower, forming the biogas store, are secured on opposite sides of the rigid arch roof covering load-bearing construction, the lower foil has gas slots at approx. 1/4 of the height of the arch load-bearing construction, and a duct fan forcing circulation of biogas to biogas store is connected into the inlet channel, wherein lower edges of roof covering are supported on upper part of essentially vertical foundation walls of the biomass container, while the installations for moisturising biomass with process liquid have moisturising nozzles, placed in the biomass loading zone and variable heights, depending on the height of the biomass loading zone, preferably in intermediate zone, and furthermore in the biomass loading zone there is a channel for pulp, preferably created by a perforated barrier supported on the base of biomass container or constituting a perforated pipe, suspended, supported or resting freely in a biomass layer.
A control system for heating, ventilation, and air conditioning, HVAC, the control system comprising: an air-handling unit, AHU, comprising an AHU heating coil and an AHU cooling coil, the AHU configured to output supply air at an AHU temperature; a terminal unit having a terminal flow rate sensor, a terminal heating coil and a terminal cooling coil, the terminal unit connected with the air handling unit by a duct for receiving the supply air from the AHU; and a controller configured to receive a flow rate from the terminal flow rate sensor, calculate a slope of total power consumption of the AHU and the terminal unit as a function of temperature based on the flow rate, and control the AHU temperature for the supply air based on the slope to minimize the total power consumption depending on an outside air temperature and temperature set point for the terminal unit. an air-handling unit, AHU, comprising an AHU heating coil and an AHU cooling coil, the AHU configured to output supply air at an AHU temperature; a terminal unit having a terminal flow rate sensor, a terminal heating coil and a terminal cooling coil, the terminal unit connected with the air handling unit by a duct for receiving the supply air from the AHU; and a controller configured to receive a flow rate from the terminal flow rate sensor, calculate a slope of total power consumption of the AHU and the terminal unit as a function of temperature based on the flow rate, and control the AHU temperature for the supply air based on the slope to minimize the total power consumption depending on an outside air temperature and temperature set point for the terminal unit.
An ablation antenna device comprising: a) a triaxial antenna comprising an inner conductor; and b) a conductive tip at a distal end of said antenna; wherein said inner conductor is capacitively coupled to said conductive tip, and wherein - said inner conductor comprises a first region, second region and a third region, wherein said first region is distal to said second region and said second region is distal to said third region; - said third region is contained in said triaxial antenna and comprises said inner conductor, a dielectric material, and an outer conductor, wherein the dielectric material is between the inner conductor and the outer conductor; - said second region lacks the outer conductor of said third region, wherein the dielectric material of the third region extends into the second region such that it surrounds the inner conductor; - said first region lacks the outer conductor and the dielectric material of said third region; and - said antenna further comprises a metal fitting, wherein the first region is surrounded by said metal fitting. a) a triaxial antenna comprising an inner conductor; and b) a conductive tip at a distal end of said antenna; - said inner conductor comprises a first region, second region and a third region, wherein said first region is distal to said second region and said second region is distal to said third region; - said third region is contained in said triaxial antenna and comprises said inner conductor, a dielectric material, and an outer conductor, wherein the dielectric material is between the inner conductor and the outer conductor; - said second region lacks the outer conductor of said third region, wherein the dielectric material of the third region extends into the second region such that it surrounds the inner conductor; - said first region lacks the outer conductor and the dielectric material of said third region; and - said antenna further comprises a metal fitting, wherein the first region is surrounded by said metal fitting.
A method for producing bags containing fibre material, comprising the steps of - forming at least one continuous layer of fibre material; - separating in succession portions of fibre material from the continuous layer and moving them along a predetermined path; - feeding each portion of fibre material to respective containment and compaction elements of a first transfer conveyor; - feeding an ordered succession of bags for containing respective portions of fibre material to respective supporting elements of a second o transfer conveyor; - transferring the portions of fibre material from the containment and compaction elements of the first transfer conveyor into respective housings of a third transfer conveyor; - transferring the portions of fibre material from the housings of the third transfer conveyor inside respective containment bags carried by supporting elements of the second transfer conveyor; - transferring the containment bags housing respective portions of fibre material from the respective supporting elements of the second transfer conveyor to a fourth transfer conveyor; and - moving in succession the bags housing respective portions of fibre material to a folding unit at which the bags are closed; wherein the supporting elements of the second transfer conveyor are hollow and are each designed to receive a bag for containing a portion of fibre material fitted around the supporting element, and wherein transfer of the portions of fibre material from the housings of the third transfer conveyor into respective containment bags carried by the supporting elements of the second transfer conveyor and the transfer of the containment bags housing respective portions of fibre material from the respective supporting elements of the second transfer conveyor to the fourth transfer conveyor are both performed by pushing means without interruptions. - forming at least one continuous layer of fibre material; - separating in succession portions of fibre material from the continuous layer and moving them along a predetermined path; - feeding each portion of fibre material to respective containment and compaction elements of a first transfer conveyor; - feeding an ordered succession of bags for containing respective portions of fibre material to respective supporting elements of a second o transfer conveyor; - transferring the portions of fibre material from the containment and compaction elements of the first transfer conveyor into respective housings of a third transfer conveyor; - transferring the portions of fibre material from the housings of the third transfer conveyor inside respective containment bags carried by supporting elements of the second transfer conveyor; - transferring the containment bags housing respective portions of fibre material from the respective supporting elements of the second transfer conveyor to a fourth transfer conveyor; and - moving in succession the bags housing respective portions of fibre material to a folding unit at which the bags are closed;
A method for preparing an aqueous therapeutic composition, said method comprising: obtaining herbal extracts by mixing plant matter of each of Sambucus nigra, Echinacea purpurea, and Centella asiatica wherein the plant matter is a. flowering tops of Sambucus nigra; b. rhizome and roots of Echinacea purpurea; c. aerial parts of Centella asiatica. with 70% ethanol in water and removing insoluble plant matter and solvent to form dried extracts, and combining the dried extracts, at a ratio of 70% Sambucus nigra extract, 10% Echinacea purpurea extract and 20% Centella asiatica extract; contacting the combined herbal extracts with water, then adding 96% ethanol to form an ethanolic mixture having a concentration of 70% ethanol; separating insoluble materials and ethanol from the ethanolic mixture to produce an aqueous therapeutic composition. obtaining herbal extracts by mixing plant matter of each of Sambucus nigra, Echinacea purpurea, and Centella asiatica wherein the plant matter is a. flowering tops of Sambucus nigra; b. rhizome and roots of Echinacea purpurea; c. aerial parts of Centella asiatica. a. flowering tops of Sambucus nigra; b. rhizome and roots of Echinacea purpurea; c. aerial parts of Centella asiatica. with 70% ethanol in water and removing insoluble plant matter and solvent to form dried extracts, and combining the dried extracts, at a ratio of 70% Sambucus nigra extract, 10% Echinacea purpurea extract and 20% Centella asiatica extract; contacting the combined herbal extracts with water, then adding 96% ethanol to form an ethanolic mixture having a concentration of 70% ethanol; separating insoluble materials and ethanol from the ethanolic mixture to produce an aqueous therapeutic composition.
Aircraft including a sensor network, the sensor network comprising: a first network using a wireless communication protocol; a second network using a power line communication protocol; and at least one sensor node capable of communication with both the first network and the second network, and the at least one sensor node in communication with one of the first network and the second network; wherein the at least one sensor node includes a control module and at least one sensor, wherein the control module is in communication with the at least one sensor, wherein the control module is configured to detect at least one operating parameter of the sensor network and includes control logic configured to select one of the first network and the second network based on the at least one operating parameter of the sensor network in order to communicate with the selected network. a first network using a wireless communication protocol; a second network using a power line communication protocol; and at least one sensor node capable of communication with both the first network and the second network, and the at least one sensor node in communication with one of the first network and the second network;