mhurhangee/ep-ind-claims huggingface dataset:
An artificially carbonated beverage containing a foam control agent and/or carbon dioxide control agent, wherein the control agent is a polyglycerol fatty acid ester mixture which is the esterification reaction product of a) a triglyceride, and b) a polyhydric alcohol which comprises: b1) a polyglycerol having at least 3 glycerol units, comprising triglycerol, 25-50 %wt, tetraglycerol, 25-50 %wt, higher polyglycerols, 15-40 %wt and other compounds, not more than 20 %wt; wherein the compound tetraglycerol is present in the polyglycerol component b1) in a higher amount by weight than the compound pentaglycerol; and b2) glycerol liberated from the triglyceride in the esterification reaction; wherein the molar ratio of component b1) to component a) in the esterification reaction mixture, based on average molecular weights, is 1 - 4 to 1; wherein the esterification reaction is carried out under alkaline conditions at a temperature of at least 150 °C; and wherein the control agent is present in the beverage in an amount of up to 20 mg/l. a) a triglyceride, and b) a polyhydric alcohol which comprises: b1) a polyglycerol having at least 3 glycerol units, comprising triglycerol, 25-50 %wt, tetraglycerol, 25-50 %wt, higher polyglycerols, 15-40 %wt and other compounds, not more than 20 %wt; wherein the compound tetraglycerol is present in the polyglycerol component b1) in a higher amount by weight than the compound pentaglycerol; and b2) glycerol liberated from the triglyceride in the esterification reaction; wherein the molar ratio of component b1) to component a) in the esterification reaction mixture, based on average molecular weights, is 1 - 4 to 1; wherein the esterification reaction is carried out under alkaline conditions at a temperature of at least 150 °C; and wherein the control agent is present in the beverage in an amount of up to 20 mg/l. b1) a polyglycerol having at least 3 glycerol units, comprising triglycerol, 25-50 %wt, tetraglycerol, 25-50 %wt, higher polyglycerols, 15-40 %wt and other compounds, not more than 20 %wt; wherein the compound tetraglycerol is present in the polyglycerol component b1) in a higher amount by weight than the compound pentaglycerol; and b2) glycerol liberated from the triglyceride in the esterification reaction;
Scanning unit of a position measuring device for scanning a scale, having a control device for controlling the amplitude at least of an analogue scanning signal (S1, S2) of the scanning unit, and having a display unit for signalling the amplitude, characterized in that the control device is designed to drive at least one light source (51, 52) of the display unit in such a way as to change the luminous state of the light source (51, 52), the change in the luminous state being an interruption in the illumination of the light source (51, 52) of the display unit, the number of the interruptions respectively succeeding one another at equal time intervals (t) being a measure of the amplitude of the scanning signal (S1, S2).
An exoskeleton adapted to assist, in use, at least one upper limb of a wearer of said exoskeleton when lifting and carrying a load, said exoskeleton comprising: - at least one arm including at one of its ends called "front end", at least one means for attaching an upper limb of the wearer, - a load-bearing structure intended to be secured to the wearer and including at least one support point, - at least one compensation member secured to said arm by a first pivot, extending between said arm and said load-bearing structure to which said member is secured, and exerting a compensation force moment on said arm by the deformation of at least one elastic element, - a force transmission element extending between a low point of the compensation member and an end called "rear end" of said arm opposite to the front end, the at least one elastic element and said force transmission element being continuously loaded in tension during use of the exoskeleton, and being configured so that the force moment varies with the inclination of the arm, and said transmission element being secured to the arm by a second pivot located at the rear end of the arm, the first pivot being located between the second pivot and the front end of the arm. - at least one arm including at one of its ends called "front end", at least one means for attaching an upper limb of the wearer, - a load-bearing structure intended to be secured to the wearer and including at least one support point, - at least one compensation member secured to said arm by a first pivot, extending between said arm and said load-bearing structure to which said member is secured, and exerting a compensation force moment on said arm by the deformation of at least one elastic element, - a force transmission element extending between a low point of the compensation member and an end called "rear end" of said arm opposite to the front end, the at least one elastic element and said force transmission element being continuously loaded in tension during use of the exoskeleton, and being configured so that the force moment varies with the inclination of the arm, and said transmission element being secured to the arm by a second pivot located at the rear end of the arm, the first pivot being located between the second pivot and the front end of the arm.
A device for feeding laundry pieces to a laundry treatment installation, preferably an ironer, having an infeed conveyor for transporting a laundry piece in the feeding direction, and having a stretching installation which is disposed downstream of the infeed conveyor and has at least one pair of belt conveyors (24, 25) that are disposed on top of one another, each of which has a dedicated drive such that one belt conveyor is able to be at least temporarily driven faster than the other belt conveyor, characterized in that that the drive for at least temporarily driving the belt conveyor assigned to it faster is variable in terms of speed.
A method for handling primary containers for pharmaceutical use transported along an automatic treatment line operating in a controlled environment from a contamination point of view and comprising at least one treatment station for treating the primary containers, characterised in that it comprises the following steps: - introducing into said line a secondary container equipped with rows of positioning seats housing said primary containers separately from one another; - extracting the primary containers in succession keeping the primary containers separate from one another, wherein a whole row of primary containers at a time or part of a row of primary containers at a time or one primary container at a time are extracted in succession; - transferring the extracted primary containers to said treatment station in succession one at a time, and - performing said treatment step, - wherein the method comprises a step of overturning the secondary container comprised between the introduction and the extraction step of the primary containers. - introducing into said line a secondary container equipped with rows of positioning seats housing said primary containers separately from one another; - extracting the primary containers in succession keeping the primary containers separate from one another, wherein a whole row of primary containers at a time or part of a row of primary containers at a time or one primary container at a time are extracted in succession; - transferring the extracted primary containers to said treatment station in succession one at a time, and - performing said treatment step, - wherein the method comprises a step of overturning the secondary container comprised between the introduction and the extraction step of the primary containers.
A method of provisioning a license and an application program from a first server to a computing platform over a network, the license being encrypted by the first server using a first public key and including a second key, the application program being encrypted by the first server using the second key, comprising: receiving a user password by a host application being executed by a processor of the computing system; deriving, by the host application, a symmetric key at least in part from the user password; sending the license, by the host application, to a license management firmware component of a hardware-implemented security engine within a chipset of the computer system, in a message signed by the symmetric key; deriving, by the license management firmware component, the symmetric key at least in part from the user password stored in a secure storage of the hardware-implemented security engine, verifying the signature on the message using the symmetric key, verifying the first server's signature on the license, and decrypting the license using a first private key of the license management firmware component corresponding to the first public key to obtain the second key; sending, by the license management firmware component, the second key to the host application; and decrypting the application program by the host application using the second key. receiving a user password by a host application being executed by a processor of the computing system; deriving, by the host application, a symmetric key at least in part from the user password; sending the license, by the host application, to a license management firmware component of a hardware-implemented security engine within a chipset of the computer system, in a message signed by the symmetric key; deriving, by the license management firmware component, the symmetric key at least in part from the user password stored in a secure storage of the hardware-implemented security engine, verifying the signature on the message using the symmetric key, verifying the first server's signature on the license, and decrypting the license using a first private key of the license management firmware component corresponding to the first public key to obtain the second key; sending, by the license management firmware component, the second key to the host application; and decrypting the application program by the host application using the second key.
A hydrophilic polymer derivative comprising a hydrophilic polymer moiety and an acetal moiety, wherein the hydrophilic polymer derivative comprises a structure represented by formula or formula: wherein, in the formula and the formula, B 1 is a hydrogen atom or -C(R 6)(R 7)OC E 1; E 1 is a leaving group; R 1 is a hydrocarbon group having from 1 to 10 carbon atoms or a hydrogen atom, or R 1 may be bonded to an oxygen atom of the acetal moiety; R 2, R 3, R 4, R 5, R 6 and R 7 are each independently a hydrocarbon group having from 1 to 10 carbon atoms or a hydrogen atom; m is 0 or 1; one of two oxygen atoms contained in the acetal moiety is bonded to the phenyl group; and a wavy line represents a covalent bond to a carbon atom bonded to both of the oxygen atoms contained in the acetal moiety.
Sheet-like finishing element comprising, in its interior between upper and lower cover layers (12, 13) or separating layers, supporting structures, which define channels filled with granular material, which undulate in cross-section in a curved or angular manner, wherein the supporting structures are wet-strength bonded to the cover and optionally separating layers (12, 13; 18), and wherein the cover layers (12, 13) and separating layers and/ or the supporting structures of the finishing element have tough pulp polymer highly filled with long-fibred, amorphous natural or artificial mineral wool and comprising natural (gelatine or starch) adhesive or aqueous silica solutions or synthetic resin as a binding agent, characterised in that at least one of the cover or separating layers (12, 13; 18) is fitted with a moisture-resistant, yet vapour-permeable protective layer.
A medical delivery device comprising: a barrel having an inner surface; and a stopper positioned within the barrel, the stopper contacting at least a portion of the inner surface of the barrel; the stopper having a compressibility of greater than 7.9% measured against the barrel, the stopper comprising two or more ribs where each rib having a compressibility of greater than 7.9% provides a contact width (w) with the inner surface of the barrel in a compressed state, the contact width (w) of at least one of said ribs is less than 1.0 mm and the sum of the contact widths of said ribs is less than 2.0 mm; and a plunger rod or actuation mechanism to displace the stopper; wherein the inner surface of the barrel has a water contact angle between 1° and 58°, wherein the stopper comprises an elastomeric body and the stopper is at least partially covered with one or more fluoropolymer layers, and wherein the compressibility is defined by the following formula: C ⁢ % = v − y / v × 100 where v is the maximum outer diameter of the rib(s) in a non-compressed state, and y is the inner diameter of the inner surface of the barrel. a barrel having an inner surface; and a stopper positioned within the barrel, the stopper contacting at least a portion of the inner surface of the barrel; the stopper having a compressibility of greater than 7.9% measured against the barrel, the stopper comprising two or more ribs where each rib having a compressibility of greater than 7.9% provides a contact width (w) with the inner surface of the barrel in a compressed state, the contact width (w) of at least one of said ribs is less than 1.0 mm and the sum of the contact widths of said ribs is less than 2.0 mm; and a plunger rod or actuation mechanism to displace the stopper; wherein the inner surface of the barrel has a water contact angle between 1° and 58°, wherein the stopper comprises an elastomeric body and the stopper is at least partially covered with one or more fluoropolymer layers, and wherein the compressibility is defined by the following formula: C ⁢ % = v − y / v × 100 where v is the maximum outer diameter of the rib(s) in a non-compressed state, and y is the inner diameter of the inner surface of the barrel. v is the maximum outer diameter of the rib(s) in a non-compressed state, and y is the inner diameter of the inner surface of the barrel.
A system comprising: a first central processing unit CPU configured to perform tasks that do not require manipulation of sensitive information; a secure second CPU isolated from the first CPU and from outside of the system and configured to perform tasks that manipulate sensitive information on behalf of the first CPU; a secure communication interface through which data exchange is managed between the first CPU and the second CPU, wherein the first CPU is configured to have no access to the sensitive information within the second CPU, and wherein interactions with the second CPU are strictly limited to transmitting information to be processed from the first CPU to the second CPU and transmitting a result back from the second CPU to the first CPU, through the secure communication interface. a first central processing unit CPU configured to perform tasks that do not require manipulation of sensitive information; a secure second CPU isolated from the first CPU and from outside of the system and configured to perform tasks that manipulate sensitive information on behalf of the first CPU; a secure communication interface through which data exchange is managed between the first CPU and the second CPU, wherein the first CPU is configured to have no access to the sensitive information within the second CPU, and wherein interactions with the second CPU are strictly limited to transmitting information to be processed from the first CPU to the second CPU and transmitting a result back from the second CPU to the first CPU, through the secure communication interface.
An accumulator comprising a housing and a housing cover which closes the housing in a fluid-tight manner, wherein alternately positive and negative electrodes (4, 5) as well as an electrolyte which surrounds the electrodes (4, 5) are located inside the housing, comprising an additional tank which serves as compensation tank for the electrolyte, wherein the volume space provided by the additional tank, on the one hand, and the volume space provided by the housing, on the other hand, are in fluidic connection, wherein the additional tank is mounted on the housing cover, characterized in that a liquid separator in form of small rods is arranged in the connection channel between the additional tank and the housing.
A glass product forming machine comprising: a mold composed of a pair of split molds (11, 12), and a mold cooling device for cooling the mold to control a temperature of the mold, wherein the mold cooling device is configured to include: cooling mechanisms (3L, 3R) provided to the respective split molds (11, 12), the cooling mechanisms (3L, 3R) each individually applying cooling air to each of the split molds (11, 12) of the mold; valve mechanisms (30L, 30R) for individually opening and closing each of paths for introducing cooling air to the respective cooling mechanisms (3L, 3R); temperature detection means for detecting a temperature of at least one of the split molds (11, 12); and a temperature control device for generating and outputting respective control signals for controlling opening and closing operations of the respective valve mechanisms (30L, 30R) on the basis of a detected temperature value by the temperature detection means, c h a r a c t e r i z e d in that the temperature detection means is configured to detect the temperature of one of the split molds (11, 12), and the temperature control device is configured to generate a switching control signal for controlling the opening and closing operations of one valve mechanism of the respective valve mechanisms (30L, 30R) on the basis of the temperature value detected by the temperature detection means and generate a signal offsetting the timing of the switching control signal on the basis of an offset value obtained experimentally and empirically in advance as a switching control signal for controlling the opening and closing of the other valve mechanism. the mold cooling device is configured to include: cooling mechanisms (3L, 3R) provided to the respective split molds (11, 12), the cooling mechanisms (3L, 3R) each individually applying cooling air to each of the split molds (11, 12) of the mold; valve mechanisms (30L, 30R) for individually opening and closing each of paths for introducing cooling air to the respective cooling mechanisms (3L, 3R); temperature detection means for detecting a temperature of at least one of the split molds (11, 12); and a temperature control device for generating and outputting respective control signals for controlling opening and closing operations of the respective valve mechanisms (30L, 30R) on the basis of a detected temperature value by the temperature detection means, c h a r a c t e r i z e d in that the temperature detection means is configured to detect the temperature of one of the split molds (11, 12), and the temperature control device is configured to generate a switching control signal for controlling the opening and closing operations of one valve mechanism of the respective valve mechanisms (30L, 30R) on the basis of the temperature value detected by the temperature detection means and generate a signal offsetting the timing of the switching control signal on the basis of an offset value obtained experimentally and empirically in advance as a switching control signal for controlling the opening and closing of the other valve mechanism.
A pressure support device for providing pressure support therapy to a patient, the pressure support device comprising: an airflow generator structured to generate pressure to provide pressure compensation to the patient via a patient circuit (12,14), wherein the patient circuit comprises components including a patient interface, a conduit, and any other components between the airflow generator and the patient; and one or more sensors (22,27,28,29) structured to gather data related to effectiveness of the pressure compensation after one of the components of the patient circuit are replaced, characterized in that the pressure support device further comprises: a processing unit structured to analyze outputs of the sensors while pressure support therapy is provided to the patient to determine if the pressure compensation provided to the patient is improper, based on the severity and/or frequency of sleep disordered breathing symptoms and/or a sub-optimal breath waveform shape indicating signs of uncomfortable breathing, and to initiate action to confirm whether components of the patient circuit have been replaced in response to determining that the pressure compensation provided to the patient is improper. an airflow generator structured to generate pressure to provide pressure compensation to the patient via a patient circuit (12,14), wherein the patient circuit comprises components including a patient interface, a conduit, and any other components between the airflow generator and the patient; and one or more sensors (22,27,28,29) structured to gather data related to effectiveness of the pressure compensation after one of the components of the patient circuit are replaced, characterized in that the pressure support device further comprises: a processing unit structured to analyze outputs of the sensors while pressure support therapy is provided to the patient to determine if the pressure compensation provided to the patient is improper, based on the severity and/or frequency of sleep disordered breathing symptoms and/or a sub-optimal breath waveform shape indicating signs of uncomfortable breathing, and to initiate action to confirm whether components of the patient circuit have been replaced in response to determining that the pressure compensation provided to the patient is improper.
A composition comprising a refrigerant, the refrigerant comprising trans-1,2-difluoroethylene (HFO-1132) and trifluoroethylene (HFO-1123) in a total amount of 99.5 mass% or more based on the entire refrigerant, and the refrigerant comprising 62.0 mass% to 72.0 mass% of HFO-1132 based on the entire refrigerant. the refrigerant comprising trans-1,2-difluoroethylene (HFO-1132) and trifluoroethylene (HFO-1123) in a total amount of 99.5 mass% or more based on the entire refrigerant, and the refrigerant comprising 62.0 mass% to 72.0 mass% of HFO-1132 based on the entire refrigerant.
A white light emitter composite material comprising mixture of Aluminium Nitride nanopowder, Tb doped AIN (AIN:Tb) nanopowder and Mn doped AIN (AIN:Mn) nanopowder, a layer of said mixture bound by a matrix material.