mhurhangee/patent-ind-claim-en huggingface dataset:
A connecting structure comprising: an RF signal connecting portion spaced apart, by a predetermined distance, from an outer member having an electrode pad provided on a surface thereof; and a terminal portion configured to electrically connect the electrode pad of the outer member and the RF signal connecting portion so as to absorb assembly tolerance existing at the predetermined distance and to prevent disconnection of the electric flow between the electrode pad and the RF signal connecting portion , wherein the terminal portion comprises: a first side terminal contactable with the electrode pad and a second side terminal connected to the RF signal connecting portion , and a part of the at least one side terminal is elastically deformable by an assembly force provided by an assembler, and is configured to apply lateral tension to the other side terminal while elastically supporting the other side terminal toward the electrode pad, wherein the second side terminal has a housing space in which a part of the first side terminal is housed, characterized in that the first side terminal has a plurality of cut pieces (52', 52") formed at an outer circumferential surface thereof, and inclined and extended upwardly, with respect to the second side terminal , to the outside. an RF signal connecting portion spaced apart, by a predetermined distance, from an outer member having an electrode pad provided on a surface thereof; and a terminal portion configured to electrically connect the electrode pad of the outer member and the RF signal connecting portion so as to absorb assembly tolerance existing at the predetermined distance and to prevent disconnection of the electric flow between the electrode pad and the RF signal connecting portion , wherein the terminal portion comprises: a first side terminal contactable with the electrode pad and a second side terminal connected to the RF signal connecting portion , and a part of the at least one side terminal is elastically deformable by an assembly force provided by an assembler, and is configured to apply lateral tension to the other side terminal while elastically supporting the other side terminal toward the electrode pad, wherein the second side terminal has a housing space in which a part of the first side terminal is housed, characterized in that the first side terminal has a plurality of cut pieces (52', 52") formed at an outer circumferential surface thereof, and inclined and extended upwardly, with respect to the second side terminal , to the outside.
A method of operating a memory device , the method comprising: receiving, by the memory device , a request command for performing an eye-opening monitor, EOM, operation from a host device ; receiving, by the memory device , at least one parameter for performing the EOM operation from the host device ; receiving, by the memory device , pattern data for performing the EOM operation in a signal (S) from the host device ; and performing, by the memory device , the EOM operation based on the at last one parameter and the pattern data, and transmitting a first response signal including a result of performing the EOM operation to the host device , characterised in that the performing of the EOM operation comprises, performing the EOM operation based on a comparison between a main path signal (MS), which corresponds to the signal (S) received from the host device and restored at the memory device , and an EOM path signal (ES), which corresponds to the signal (S) received from the host device and restored using an offset value at the memory device , and wherein the at least one parameter for performing the EOM operation includes a parameter that defines the offset value. receiving, by the memory device , a request command for performing an eye-opening monitor, EOM, operation from a host device ; receiving, by the memory device , at least one parameter for performing the EOM operation from the host device ; receiving, by the memory device , pattern data for performing the EOM operation in a signal (S) from the host device ; and performing, by the memory device , the EOM operation based on the at last one parameter and the pattern data, and transmitting a first response signal including a result of performing the EOM operation to the host device , characterised in that the performing of the EOM operation comprises, performing the EOM operation based on a comparison between a main path signal (MS), which corresponds to the signal (S) received from the host device and restored at the memory device , and an EOM path signal (ES), which corresponds to the signal (S) received from the host device and restored using an offset value at the memory device , and wherein the at least one parameter for performing the EOM operation includes a parameter that defines the offset value.
A circuit for frequency converting and quadrature combining, comprising: a first mixing circuit configured to multiply a radio frequency (RF) signal with a first local oscillating signal to generate a first frequency converted signal ; a second mixing circuit configured to multiply the RF signal with a second local oscillating signal to generate a second frequency converted signal , wherein the second local oscillating signal is about 90° out of phase with respect to the first local oscillating signal; a third mixing circuit configured to multiply the RF signal with the second local oscillating signal to generate a third frequency converted signal ; a fourth mixing circuit configured to multiply the RF signal with the first local oscillating signal to generate a fourth frequency converted signal ; a first combining circuit configured to combine the first frequency converted signal with the third frequency converted signal ; a second combining circuit configured to combine the second frequency converted signal with the fourth frequency converted signal ; a first scaling circuit interposed between the third mixing circuit and the first combining circuit and configured to scale the third frequency converted signal to have an amplitude that is a fraction of an amplitude of the first frequency converted signal ; and a second scaling circuit interposed between the fourth mixing circuit and the second combining circuit and configured to scale the fourth frequency converted signal to have an amplitude that is a fraction of an amplitude of the second frequency converted signal . a first mixing circuit configured to multiply a radio frequency (RF) signal with a first local oscillating signal to generate a first frequency converted signal ; a second mixing circuit configured to multiply the RF signal with a second local oscillating signal to generate a second frequency converted signal , wherein the second local oscillating signal is about 90° out of phase with respect to the first local oscillating signal; a third mixing circuit configured to multiply the RF signal with the second local oscillating signal to generate a third frequency converted signal ; a fourth mixing circuit configured to multiply the RF signal with the first local oscillating signal to generate a fourth frequency converted signal ; a first combining circuit configured to combine the first frequency converted signal with the third frequency converted signal ; a second combining circuit configured to combine the second frequency converted signal with the fourth frequency converted signal ; a first scaling circuit interposed between the third mixing circuit and the first combining circuit and configured to scale the third frequency converted signal to have an amplitude that is a fraction of an amplitude of the first frequency converted signal ; and a second scaling circuit interposed between the fourth mixing circuit and the second combining circuit and configured to scale the fourth frequency converted signal to have an amplitude that is a fraction of an amplitude of the second frequency converted signal .
A packaging method, in which goods to be packed are placed in an open inner envelope in a packaging or in an outer frame, characterised in that the envelope is attached pre-tensioned with elastic pull ropes on the outside of the packaging or the outer frame, in order to keep the goods about centred in the outer packaging or the outer frame, and that the envelope is closed and mostly evacuated after insertion of the goods until the inner envelope is hugging the goods tightly, wherein evacuation causes an additional stretching of the pull ropes , wherein the evacuation at least to the greatest part has further tensioned the pull ropes .
A hinge cell for beam (B) to column (C) connection providing ground movement protection to a construction by preventing plastic bending on frames of the construction, comprising a beam plate adapted for being mounted from its outer surface to a beam-end; a column plate adapted for being mounted from its outer surface to a column surface characterized by a middle plate positioned between the beam plate and the column plate ; at least four protrusions at least one of which is positioned perpendicularly on the inner surface of the beam plate ; at least another of which is positioned perpendicularly on the inner surface of the column plate ; at least another of which is positioned perpendicularly on each surface of the middle plate ; at least a transverse hole passing through each of the protrusions where the protrusions on the inner surface of the beam plate are orthogonal to the protrusions on the inner surface of the column plate and the protrusions on each surface of the middle plate are orthogonal to each other and the protrusions on the inner surface of the beam plate and the protrusions on the surface of the middle plate , facing with the inner surface of the beam plate , are positioned so that at least a portion of the protrusions is in parallel and side by side parallel so as to align the transverse holes on each protrusions and where the protrusions on the inner surface of the column plate and the protrusions on the surface of the middle plate , facing with the inner surface of the column plate , are positioned so that at least a portion of the protrusions is in parallel and side by side parallel so as to align the transverse holes on each protrusions ; at least a pin attaching the protrusions though the holes forming a rotatable joint connection between the beam plate and middle plate and forming another rotatable joint connection between the column plate and middle plate where the axes of the said rotatable joint connections are orthogonal to each other; at least a resistive bar secured between the beam plate and the middle plate and at least another resistive bar secured between the column plate and the middle plate resisting the rotational motion along the axis orthogonal to the pin axis.
A method of controlling a display device , the method comprising: receiving a first selection input of a user selecting an object included in a main display region ; receiving a motion input of the user moving the object to a sub-display region ; displaying icons in the sub-display region , wherein an icon included among the displayed icons indicates a shortcut information of the object; receiving a second selection input of the user selecting a merge button ; generating a document including at least a portion of each of a plurality of objects corresponding to each of the displayed icons in the sub-display region in response to the second selection input of the user; and displaying the document in the main display region . receiving a first selection input of a user selecting an object included in a main display region ; receiving a motion input of the user moving the object to a sub-display region ; displaying icons in the sub-display region , wherein an icon included among the displayed icons indicates a shortcut information of the object; receiving a second selection input of the user selecting a merge button ; generating a document including at least a portion of each of a plurality of objects corresponding to each of the displayed icons in the sub-display region in response to the second selection input of the user; and displaying the document in the main display region .
A flow battery comprising: a first aqueous electrolyte comprising a first redox active metal-ligand coordination compound; a second aqueous electrolyte comprising a second redox active metal-ligand coordination compound; a first electrode in contact with said first aqueous electrolyte; a second electrode in contact with said second aqueous electrolyte and a separator disposed between said first aqueous electrolyte and said second aqueous electrolyte; wherein the first redox active metal-ligand coordination compound has a formula comprising M(L1) x (L2) y (L3) z m , where M is selected from the group consisting of Al, Ce, Co, Cr, Fe, Mn, Mo, Sn, Ti, W, or Zr, wherein x, y, and z are selected from the group consisting of (a) x = 3, y = z = 0; (b) x = 2, y = 1, z = 0; and (c) x = 1, y = 1, z = 1; m is independently -5, -4, -3, -2, -1, 0; and L1, L2, and L3 are each independently ascorbate, catecholate, citrate, a glycolate, gluconate, glycinate, α-hydroxyalkanoate, β-hydroxyalkanoate, γ-hydroxyalkanoate, malate, maleate, phthalate, a polyol, sarcosinate, salicylate, lactate, : wherein the second redox active metal-ligand coordination compound comprises a chromium, iron, or manganese cyanide compound. a first aqueous electrolyte comprising a first redox active metal-ligand coordination compound; a second aqueous electrolyte comprising a second redox active metal-ligand coordination compound; a first electrode in contact with said first aqueous electrolyte; a second electrode in contact with said second aqueous electrolyte and a separator disposed between said first aqueous electrolyte and said second aqueous electrolyte; wherein the first redox active metal-ligand coordination compound has a formula comprising M(L1) x (L2) y (L3) z m , where M is selected from the group consisting of Al, Ce, Co, Cr, Fe, Mn, Mo, Sn, Ti, W, or Zr, wherein x, y, and z are selected from the group consisting of (a) x = 3, y = z = 0; (b) x = 2, y = 1, z = 0; and (c) x = 1, y = 1, z = 1; m is independently -5, -4, -3, -2, -1, 0; and L1, L2, and L3 are each independently ascorbate, catecholate, citrate, a glycolate, gluconate, glycinate, α-hydroxyalkanoate, β-hydroxyalkanoate, γ-hydroxyalkanoate, malate, maleate, phthalate, a polyol, sarcosinate, salicylate, lactate, : wherein the second redox active metal-ligand coordination compound comprises a chromium, iron, or manganese cyanide compound.
Cable with an outer sheath of a fluoropolymer and with a conductor core, wherein the conductor core has a plurality of individual elements, at least some of which are in the form of cores, which each have a central conductor and a core insulation surrounding the latter, and is surrounded by an inner sheath, which penetrates into intermediate gaps between the individual elements, wherein a heat-resistant foil is arranged between the inner sheath and the outer sheath, wherein the foil is designed as a heat shield and has at least one metal layer, and the foil has a minimum distance of at least 0.3 mm from the individual elements.
A method for producing a fastening arrangement made of one or more concrete elements , one or more insulation elements and at least one concrete anchor system which in turn comprises a concrete anchor and a fastening element ; wherein the concrete anchor in turn comprises a head with a force application portion and a shank defining a longitudinal axis and ending in a tip , wherein the shank comprises a longitudinal stop , at least one external thread portion and at least one anchoring portion with an expanding element , and wherein the shank is at least partially elastically deformable; and the length of the concrete anchor between the longitudinal stop and the tip is greater than the thickness of the one or more insulation elements ; comprising the following method steps: - providing a mold , - inserting one or more insulation elements into the mold, - screwing at least one concrete anchor into the one or more insulation elements until the longitudinal stop contacts an insulation element , wherein the concrete anchor is subjected to elastic deformation after the tip abuts against the mold and buckles, - casting one or more concrete elements over the one or more insulation layers , wherein the head is anchored in the one or more concrete elements and wherein the anchoring portion lies in the one or more insulation elements ; - removing the arrangement made of the one or more insulation elements , the one or more concrete elements and the at least one concrete anchor from the mold, wherein the elastic deformation is at least partially eliminated, and - screwing the fastening element through the tip of the concrete anchor into the hollow portion of the shank into the concrete anchor , so that the concrete anchor is compressed and thus the expansion element is expanded in the one or more insulation elements . - providing a mold , - inserting one or more insulation elements into the mold, - screwing at least one concrete anchor into the one or more insulation elements until the longitudinal stop contacts an insulation element , wherein the concrete anchor is subjected to elastic deformation after the tip abuts against the mold and buckles, - casting one or more concrete elements over the one or more insulation layers , wherein the head is anchored in the one or more concrete elements and wherein the anchoring portion lies in the one or more insulation elements ; - removing the arrangement made of the one or more insulation elements , the one or more concrete elements and the at least one concrete anchor from the mold, wherein the elastic deformation is at least partially eliminated, and - screwing the fastening element through the tip of the concrete anchor into the hollow portion of the shank into the concrete anchor , so that the concrete anchor is compressed and thus the expansion element is expanded in the one or more insulation elements .
Printing machine comprising: a. a guide ; b. at least one printing station located along said guide ; c. at least one supporting station for supporting a product to be printed by said printing station; d. at least a first and a second positioning units mounted along said guide , at least one of said positioning units being located at said printing station ; wherein said supporting station includes: a. a motor substantially integral with said supporting station for moving said supporting station along said guide ; b. an acquisition device capable of acquiring an identification code (ID1, ID2) from each of said positioning units when said supporting station is at each of said positioning units ; characterised in that said supporting station further includes: c. a memory wherein reference codes (Ref1, Ref2) corresponding to said identification codes (ID1, ID2) and at least one reference distance (DRef) corresponding to a distance between said first and second positioning units are stored; d. a processing unit configured to control said motor based on the acquired identification codes (ID1, ID2) and on the reference codes (Ref1, Ref2) and reference distance (DRef) stored in said memory . a. a guide ; b. at least one printing station located along said guide ; c. at least one supporting station for supporting a product to be printed by said printing station; d. at least a first and a second positioning units mounted along said guide , at least one of said positioning units being located at said printing station ; a. a motor substantially integral with said supporting station for moving said supporting station along said guide ; b. an acquisition device capable of acquiring an identification code (ID1, ID2) from each of said positioning units when said supporting station is at each of said positioning units ; characterised in that said supporting station further includes: c. a memory wherein reference codes (Ref1, Ref2) corresponding to said identification codes (ID1, ID2) and at least one reference distance (DRef) corresponding to a distance between said first and second positioning units are stored; d. a processing unit configured to control said motor based on the acquired identification codes (ID1, ID2) and on the reference codes (Ref1, Ref2) and reference distance (DRef) stored in said memory .
A carrier cloth device , in particular belly or back carrier cloth device, for babies or young children, comprising: a back textile with a back textile inner side and a back textile outer side , and two textile shoulder straps , with a textile shoulder strap inner side and an opposite textile shoulder strap outer side , respectively, and at least two cushions , wherein the two textile shoulder straps are connected to the back textile and comprise at least one cushion pouch with a pouch opening , respectively, wherein the respective cushion pouch is designed and configured to hold at least one of the cushions , wherein the two cushions are insertable into the cushion pouch through the respective pouch opening and are removable from said pouch , wherein the pouch opening is formed in the textile shoulder strap outer side or is formed in the textile shoulder strap inner side or is formed between the textile shoulder strap outer side and the textile shoulder strap inner side. a back textile with a back textile inner side and a back textile outer side , and two textile shoulder straps , with a textile shoulder strap inner side and an opposite textile shoulder strap outer side , respectively, and at least two cushions , wherein the two textile shoulder straps are connected to the back textile and comprise at least one cushion pouch with a pouch opening , respectively, wherein the respective cushion pouch is designed and configured to hold at least one of the cushions , wherein the two cushions are insertable into the cushion pouch through the respective pouch opening and are removable from said pouch , wherein the pouch opening is formed in the textile shoulder strap outer side or is formed in the textile shoulder strap inner side or is formed between the textile shoulder strap outer side and the textile shoulder strap inner side.