mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing spiro[2.5]octane-5,7-dione having the formula said method comprising: - cyclization of cyclopropylidene carboxylic acid alkyl ester having the formula with dialkyl 1,3-acetonedicarboxylate having the formula to form 5,7-dioxo-spiro[2.5]octane-4,6-dicarboxylic acid dialkyl ester having the formula wherein R may be independently C1-C6 alkyl, and/or - ester hydrolysis and decarboxylation of 5,7-dioxo-spiro[2.5]octane-4,6-dicarboxylic acid dialkyl ester having the formula to form spiro[2.5]octane-5,7-dione, wherein R may be independently C1-C6 alkyl. - cyclization of cyclopropylidene carboxylic acid alkyl ester having the formula with dialkyl 1,3-acetonedicarboxylate having the formula to form 5,7-dioxo-spiro[2.5]octane-4,6-dicarboxylic acid dialkyl ester having the formula wherein R may be independently C1-C6 alkyl, and/or - ester hydrolysis and decarboxylation of 5,7-dioxo-spiro[2.5]octane-4,6-dicarboxylic acid dialkyl ester having the formula to form spiro[2.5]octane-5,7-dione, wherein R may be independently C1-C6 alkyl.
A bicycle derailleur motor gear unit configured to reduce motor speed of a motor and transmit motor torque of the motor to a derailleur, the bicycle derailleur motor gear unit comprising: an output shaft; characterized by the unit further comprising: a fixed sun gear; an output sun gear rotatable relative to the fixed sun gear, the output sun gear being fixedly coupled to the output shaft; a plurality of planet gears; and a carrier rotatably and revolvably supporting the planet gears; each of the planet gears having a first gear that engages with the fixed sun gear and a second gear that engages with the output sun gear, the first gear and the second gear being coaxially coupled to each other, wherein the fixed sun gear, the output sun gear, the first gear, and the second gear have tooth counts, respectively, such that the fixed sun gear, the output sun gear, the first gear, and the second gear lock while an external force is exerted to the output sun gear. an output shaft; characterized by the unit further comprising: a fixed sun gear; an output sun gear rotatable relative to the fixed sun gear, the output sun gear being fixedly coupled to the output shaft; a plurality of planet gears; and a carrier rotatably and revolvably supporting the planet gears; a fixed sun gear; an output sun gear rotatable relative to the fixed sun gear, the output sun gear being fixedly coupled to the output shaft; a plurality of planet gears; and a carrier rotatably and revolvably supporting the planet gears; each of the planet gears having a first gear that engages with the fixed sun gear and a second gear that engages with the output sun gear, the first gear and the second gear being coaxially coupled to each other, wherein the fixed sun gear, the output sun gear, the first gear, and the second gear have tooth counts, respectively, such that the fixed sun gear, the output sun gear, the first gear, and the second gear lock while an external force is exerted to the output sun gear.
A metal clad laminate at least comprising a thermoplastic liquid crystal polymer film and a metallic foil bonded to each other, wherein the thermoplastic liquid crystal polymer film has a surface with a glossiness (20°) of 55 or higher in accordance with JIS Z 8741 on the opposite side of the bonding surface to the metallic foil.
A method for non-destructively determining a mechanical property of a solid rocket motor propellant grain, wherein the solid rocket motor propellant grain is a solid mass with an exposed inner surface area defining a perforation in the interior of the solid rocket motor propellant grain, the method comprising: inserting a bladder into the perforation; moving a gas into the bladder; applying a force to a surface of the solid rocket motor propellant grain with the gas; forming a deformation on the surface of the solid rocket motor propellant grain with the force of the gas; and calculating a value of the mechanical property of the solid rocket motor propellant grain based upon the deformation. applying a force to a surface of the solid rocket motor propellant grain with the gas; forming a deformation on the surface of the solid rocket motor propellant grain with the force of the gas; and calculating a value of the mechanical property of the solid rocket motor propellant grain based upon the deformation.
A system comprising - a distribution grid for a fuel, - combustion engines, which are coupled with the distribution grid and are configured to combust the fuel, and - a computer system comprising data connections to the combustion engines and a data storage device, wherein the computer system is configured to receive engine operation parameters stemming from an operation of the combustion engines at a first time and/or during a first time period via the data connections and geographical data of the combustion engines are stored in the data storage device, wherein - the computer system has a processor which is configured to compute a prediction for at least one characteristic parameter of the fuel at a second time and/or during a second time period later than the first time and/or the first time period and with respect to a geographical location, - the computation of the prediction being based on the geographical data and the engine operation parameters of the combustion engines, - there is at least one further combustion engine present which is coupled to the distribution grid and configured to combust the fuel, and - set points for a closed and/or open loop control of the at least one further combustion engine and/or a time of operation of the further combustion engine are based on the prediction of the at least one characteristic parameter of the fuel for the second time and/or the second time period with respect to the geographical location of the at least one further combustion engine. - a distribution grid for a fuel, - combustion engines, which are coupled with the distribution grid and are configured to combust the fuel, and - a computer system comprising data connections to the combustion engines and a data storage device, wherein the computer system is configured to receive engine operation parameters stemming from an operation of the combustion engines at a first time and/or during a first time period via the data connections and geographical data of the combustion engines are stored in the data storage device, - the computer system has a processor which is configured to compute a prediction for at least one characteristic parameter of the fuel at a second time and/or during a second time period later than the first time and/or the first time period and with respect to a geographical location, - the computation of the prediction being based on the geographical data and the engine operation parameters of the combustion engines, - there is at least one further combustion engine present which is coupled to the distribution grid and configured to combust the fuel, and - set points for a closed and/or open loop control of the at least one further combustion engine and/or a time of operation of the further combustion engine are based on the prediction of the at least one characteristic parameter of the fuel for the second time and/or the second time period with respect to the geographical location of the at least one further combustion engine.
A recording apparatus comprising: an adhesive belt that has adhesion to peelably affix a recording medium; a liquid ejection unit configured to eject a liquid forming an image from a nozzle array onto the recording medium supported by the adhesive belt; and a peeling liquid adhesion unit configured to adhere a peeling liquid onto the recording medium, characterized in that the peeling liquid adhesion unit is configured to adhere the peeling liquid onto the recording medium such that the peeling liquid adheres to at least a side edge (16, 17) of the recording medium. an adhesive belt that has adhesion to peelably affix a recording medium; a liquid ejection unit configured to eject a liquid forming an image from a nozzle array onto the recording medium supported by the adhesive belt; and a peeling liquid adhesion unit configured to adhere a peeling liquid onto the recording medium, characterized in that the peeling liquid adhesion unit is configured to adhere the peeling liquid onto the recording medium such that the peeling liquid adheres to at least a side edge (16, 17) of the recording medium.
Mullion and transom structure with a supporting structure composed of supporting profiles in a mullion and transom type of arrangement to which filling elements are fastened by press-in profiles and sealed by means of outer and inner seals (6, 7), wherein a flag seal is arranged on at least one supporting profile with a seal region clamped between the outer seal and the filling element and wherein at least one supporting element is provided on the supporting profile fitted with the flag seal for supporting a filling element and the flag seal is arranged running through over the supporting element, wherein the flag seal is retained on the supporting profile by means of an additional retaining profile, wherein the retaining profile comprises a receiving profile for form-locking retention of the flag seal, characterised in that the at least one supporting element comprises a receiving profile which corresponds to the receiving profile of the retaining profile and is aligned with the latter for form-locking retention of the flag seal.
A method for supplying and/or disposing of hazardous material in an apparatus working with the hazardous material, wherein with the aid of at least one control unit (13, 13') as well as with at least one sensor at least one hazardous material parameter is monitored, and wherein the apparatus works in conjunction with at least one safety cabinet for storing the hazardous material in at least one hazardous material container, characterized in that - the apparatus and the safety cabinet define a transportable work unit (1, 2) in such a manner that - the apparatus is operationally connected to the safety cabinet equipped with bottom-side rollers via one or more hoses, and that - as hazardous material parameters, a supply filling volume as well as a disposal filling volume of the respective hazardous material are monitored and evaluated in the control unit (13, 13'). - the apparatus and the safety cabinet define a transportable work unit (1, 2) in such a manner that - the apparatus is operationally connected to the safety cabinet equipped with bottom-side rollers via one or more hoses, and that - as hazardous material parameters, a supply filling volume as well as a disposal filling volume of the respective hazardous material are monitored and evaluated in the control unit (13, 13').
A surgical instrument, comprising: a housing; an elongated shaft assembly operably coupled to said housing and defining a shaft axis; a surgical end effector defining an end effector axis and being operably coupled to said elongated shaft assembly for selective articulation relative thereto between a first home position wherein said end effector axis is aligned with said shaft axis and a first maximum articulated position wherein said end effector axis is positioned at a first maximum articulation angle relative to said shaft axis; and an articulation motor operably supported by said housing and operably interfacing with said surgical end effector to move said surgical end effector between said first home position and said first maximum articulated position, said articulation motor configured to operate at a first motor speed to articulate said end effector from said first home position to a first articulated position wherein said end effector axis is positioned at a first articulation angle relative to said shaft axis and wherein said first articulation angle is less than said first maximum articulation angle, said articulation motor being further configured to operate at a second motor speed to articulate said surgical end effector from said first articulated position to said first maximum articulated position, wherein said second motor speed differs from said first motor speed; wherein said articulation motor comprises a rotary articulation drive shaft mechanically linked to a switching system supported by said housing for controlling said first and second motor speeds. a housing; an elongated shaft assembly operably coupled to said housing and defining a shaft axis; a surgical end effector defining an end effector axis and being operably coupled to said elongated shaft assembly for selective articulation relative thereto between a first home position wherein said end effector axis is aligned with said shaft axis and a first maximum articulated position wherein said end effector axis is positioned at a first maximum articulation angle relative to said shaft axis; and an articulation motor operably supported by said housing and operably interfacing with said surgical end effector to move said surgical end effector between said first home position and said first maximum articulated position, said articulation motor configured to operate at a first motor speed to articulate said end effector from said first home position to a first articulated position wherein said end effector axis is positioned at a first articulation angle relative to said shaft axis and wherein said first articulation angle is less than said first maximum articulation angle, said articulation motor being further configured to operate at a second motor speed to articulate said surgical end effector from said first articulated position to said first maximum articulated position, wherein said second motor speed differs from said first motor speed; wherein said articulation motor comprises a rotary articulation drive shaft mechanically linked to a switching system supported by said housing for controlling said first and second motor speeds.
Flavour composition comprising at least 0.1 wt.% of flavouring substances and at least 1 ppb and less than 10 ppm of: one or more taste improving substances selected from the group of N-lactoyl guanosine monophosphate, N-lactoyl adenosine monophosphate, N-lactoyl cytidine monophosphate, N-lactoyl inosine monophosphate, N-gluconyl GMP, N-gluconyl AMP, N-gluconyl CMP, N-gluconyl IMP, O-lactoyl-GMP, O-lactoyl-AMP, O-lactoyl-CMP, O-lactoyl-IMP, O-gluconyl GMP, O-gluconyl AMP, O-gluconyl CMP and O-gluconyl IMP and mixtures thereof one or more taste improving substances selected from the group of N-lactoyl guanosine monophosphate, N-lactoyl adenosine monophosphate, N-lactoyl cytidine monophosphate, N-lactoyl inosine monophosphate, N-gluconyl GMP, N-gluconyl AMP, N-gluconyl CMP, N-gluconyl IMP, O-lactoyl-GMP, O-lactoyl-AMP, O-lactoyl-CMP, O-lactoyl-IMP, O-gluconyl GMP, O-gluconyl AMP, O-gluconyl CMP and O-gluconyl IMP and mixtures thereof
An exoskeleton robot, comprising: a waist assembly including: a first frame including a first rail and a first slider inside the first rail, a plate fixed by a first bolt screwed into the first slider, and a second frame connected to the plate, wherein the second frame having a slot and a second bolt inside the slot; a leg assembly installed to the second frame by the second bolt; a back stand installed to the first frame; a chest assembly installed to the back stand and including: a third frame installed to the back stand and having a second rail and a second slider inside the second rail; and a chest board installed to the third frame and fixed by a third bolt screwed into the second slider. a waist assembly including: a first frame including a first rail and a first slider inside the first rail, a plate fixed by a first bolt screwed into the first slider, and a second frame connected to the plate, wherein the second frame having a slot and a second bolt inside the slot; a first frame including a first rail and a first slider inside the first rail, a plate fixed by a first bolt screwed into the first slider, and a second frame connected to the plate, wherein the second frame having a slot and a second bolt inside the slot; a leg assembly installed to the second frame by the second bolt; a back stand installed to the first frame; a chest assembly installed to the back stand and including: a third frame installed to the back stand and having a second rail and a second slider inside the second rail; and a chest board installed to the third frame and fixed by a third bolt screwed into the second slider. a third frame installed to the back stand and having a second rail and a second slider inside the second rail; and a chest board installed to the third frame and fixed by a third bolt screwed into the second slider.
A method executable upon a wireless communication receiver comprising: analyzing a storage space characteristic for a buffer; setting (906, 908) a length for a variable abort timer, the storage space characteristic being used in setting the length, wherein the length defines a time duration to receive a missing data packet communicated on a channel; evaluating a condition of the channel, wherein the channel is used in communication between a transmitter and the receiver; and determining a change in the length for the variable abort timer based upon a result of the evaluation. analyzing a storage space characteristic for a buffer; setting (906, 908) a length for a variable abort timer, the storage space characteristic being used in setting the length, wherein the length defines a time duration to receive a missing data packet communicated on a channel; evaluating a condition of the channel, wherein the channel is used in communication between a transmitter and the receiver; and determining a change in the length for the variable abort timer based upon a result of the evaluation.
A method for checking a cable harness including a plurality of electrical lines (4a-f), characterized in that - a checking section of the cable harness is selected which is a line bundle with lines (4a-f), - an electrode of a measuring device is arranged at the checking section, wherein the electrode forms a capacitor (Ca-c) with each of the lines (4a-f) of the line bundle in the checking section, wherein a capacitor (Ca-c) with a largest possible capacity is formed in order to later be able to achieve correspondingly large potentials, wherein parasitic capacitances which are formed by the electrode and lines (4a-f) located outside of the checking section are always smaller than the capacities of the capacitors (Ca-c) which are intentionally formed with the lines (4a-f) in the checking section, wherein the capacitor is formed in that the electrode at least partially surrounds the line bundle in the checking section, - one of the lines (4a-f) of the cable harness is selected as the current checking line, - an electrical reference potential is applied at the remaining lines (4a-f) of the cable harness, - an electrical checking signal is applied at the checking line and a parameter is determined according to the electrical potential of the electrode, - a decision is made: - that the checking line is located in the checking section if the parameter satisfies a test criterion or - that the checking line is not located in the checking section if the parameter does not satisfy the test criterion. - a checking section of the cable harness is selected which is a line bundle with lines (4a-f), - an electrode of a measuring device is arranged at the checking section, wherein the electrode forms a capacitor (Ca-c) with each of the lines (4a-f) of the line bundle in the checking section, wherein a capacitor (Ca-c) with a largest possible capacity is formed in order to later be able to achieve correspondingly large potentials, wherein parasitic capacitances which are formed by the electrode and lines (4a-f) located outside of the checking section are always smaller than the capacities of the capacitors (Ca-c) which are intentionally formed with the lines (4a-f) in the checking section, wherein the capacitor is formed in that the electrode at least partially surrounds the line bundle in the checking section, - one of the lines (4a-f) of the cable harness is selected as the current checking line, - an electrical reference potential is applied at the remaining lines (4a-f) of the cable harness, - an electrical checking signal is applied at the checking line and a parameter is determined according to the electrical potential of the electrode, - a decision is made: - that the checking line is located in the checking section if the parameter satisfies a test criterion or - that the checking line is not located in the checking section if the parameter does not satisfy the test criterion.
A method for predicting the clinical response to a therapy based on the administration of adipose tissue derived stromal stem cells (ASCs) in a patient suffering from an immune-mediated inflammatory disease, comprising determining in a blood sample from the patient the ratio of CD4+ T cells to T reg cells (CD4+/T reg), wherein - an increased ratio of CD4+ T cells to T reg cells (CD4+/T reg) with respect to a reference value is indicative of a clinical response to said therapy based on the administration of ASCs, wherein the reference value is obtained from the value of the ratio of CD4+ T cells to T reg cells (CD4+/T reg) in a blood sample from one or more patients who do not respond to a therapy based on the administration of ASCs, wherein administration of ASCs is intravenous and wherein said immune-mediated inflammatory disease is rheumatoid arthritis. - an increased ratio of CD4+ T cells to T reg cells (CD4+/T reg) with respect to a reference value is indicative of a clinical response to said therapy based on the administration of ASCs, wherein the reference value is obtained from the value of the ratio of CD4+ T cells to T reg cells (CD4+/T reg) in a blood sample from one or more patients who do not respond to a therapy based on the administration of ASCs,
Série constitute de boîtes de vitesses (103a, 103b, 103c, 103d), comportant une premiere boîte de vitesses, une deuxième boîte de vitesses, une troisième boîte de vitesses et une quatrième boîte de vitesses; dans laquelle les boîtes de vitesses (103a, 103b, 103c, 103d) comprennent respectivement un premier étage planétaire (105a, 105b, 105c, 105d) et un deuxième étage planétaire (107a, 107b, 107c, 107d); dans laquelle le premier étage planétaire (105a, 105b, 105c, 105d) et le deuxième étage planétaire (107a, 107b, 107c, 107d) comprennent respectivement une couronne (111a, 111b, 111c, 111d, 127a, 127b, 127c, 127c), une roue planétaire (119a, 119b, 119c, 119d, 135a, 135b, 135c, 135d), un porte-satellites (109a, 109b, 109c, 109d, 125a, 125b, 125c, 125d) et un ou plusieurs satellites (113a, 113b, 113c, 113d, 129a, 129b, 129c, 129d); dans laquelle les porte-satellites (109a, 109b) des premiers étages planétaires (105a, 105b) de la première boîte de vitesses et de la deuxième boîte de vitesses sont de construction identique; et dans laquelle les porte-satellites (109c, 109d) des premiers étages planétaires (105c, 105d) de la troisième boîte de vitesses et de la quatrième boîte de vitesses sont de construction identique; caractérisée en ce que la largeur des dents des satellites du premier étage planétaire de la première boîte de vitesses est inférieure a la largeur des dents des satellites du premier étage planétaire de la deuxième boîte de vitesses; dans laquelle le nombre de satellites du premier étage planétaire de la première boîte de vitesses est inférieur au nombre de satellites du premier étage planétaire de la troisième boîte de vitesses; et dans laquelle la largeur des dents des satellites du premier étage planétaire de la troisième boîte de vitesses est inférieure a la largeur des dents des satellites du premier étage planétaire de la quatrième boîte de vitesses.